Toshiba GRL100-101A Instruction Manual

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6 F 2 S 0 8 3 5

INSTRUCTION MANUAL

LINE DIFFERENTIAL RELAY

GRL100 - ∗∗∗B

TOSHIBA Corporation 2005

( Ver. 2.4 )

Table of Contents

Summary of Contents for Toshiba GRL100-101A

Page 2: Safety Precautions
6 F 2 S 0 8 3 5 Safety Precautions Before using this product, please read this chapter carefully. This chapter describes the safety precautions recommended when using the GRL100. Before installing and using the equipment, this chapter must be thoroughly read and understood. Explanation of symbols used Signal words such as DANGER, WARNING, and two kinds of CAUTION, will be followed by important safety information that must be carefully reviewed.
Page 3 6 F 2 S 0 8 3 5 DANGER • Current transformer circuit Never allow the current transformer (CT) secondary circuit connected to this equipment to be opened while the primary system is live. Opening the CT circuit will produce a dangerously high voltage.
Page 4 6 F 2 S 0 8 3 5 • Modification Do not modify this equipment, as this may cause the equipment to malfunction. • Short-bar Do not remove a short-bar which is mounted at the terminal block on the rear of the relay before shipment, as this may cause the performance of this equipment such as withstand voltage, etc., to reduce.
Page 5: Table Of Contents
6 F 2 S 0 8 3 5 Contents Safety Precautions Introduction Application Notes 2.1 Protection Schemes 2.2 Current Differential Protection 2.2.1 Operation of Current Differential Protection 2.2.2 Segregated-phase Current Differential Protection 2.2.3 Zero-phase Current Differential Protection 2.2.4 Fail-safe Function 2.2.5 Remote Differential Trip 2.2.6 Transmission Data 2.2.7 Synchronized Sampling...
Page 6 6 F 2 S 0 8 3 5 2.12 Communication System 2.12.1 Signaling Channel 2.12.2 Linking to Communication Circuit 2.12.3 Setup of Communication Circuit 2.12.4 Telecommunication Channel Monitoring 2.13 Fault Locator 2.13.1 Application 2.13.2 Calculation of Distance to Fault 2.13.3 Starting Calculation 2.13.4 Fault Location Display 2.13.5 Setting Technical Description...
Page 7 6 F 2 S 0 8 3 5 4.1.2 Communication Ports 4.2 Operation of the User Interface 4.2.1 LCD and LED Displays 4.2.2 Relay Menu 4.2.3 Displaying Records 4.2.4 Displaying the Status 4.2.5 Viewing the Settings 4.2.6 Changing the Settings 4.2.7 Testing 4.3 Personal Computer Interface 4.4 Relay Setting and Monitoring System...
Page 8 6 F 2 S 0 8 3 5 6.7.4 Resumption of Service 6.7.5 Storage Putting Relay into Service ⎯ 7 ⎯...
Page 9 6 F 2 S 0 8 3 5 Appendix A Block Diagram Appendix B Signal List Appendix C Variable Timer List Appendix D Binary Output Default Setting List Appendix E Details of Relay Menu Appendix F Case Outline Appendix G Typical External Connection Appendix H Relay Setting Sheet Appendix I Commissioning Test Sheet (sample) Appendix J Return Repair Form...
Page 10: Introduction
6 F 2 S 0 8 3 5 1. Introduction The GRL100 provides high-speed phase-segregated current differential protection for use with telecommunication systems, and ensures high reliability and security for diverse faults including single-phase and multi-phase faults and double-faults on double-circuit lines, evolving faults and high-impedance earth faults.
Page 11 6 F 2 S 0 8 3 5 Programmable logic for I/O configuration, alarms, indications, recording, etc. Automatic supervision The GRL100 has the following models: Relay Type and Model Relay Type: - Type GRL100; Numerical current differential relay Relay Model: - For two terminal line, With No autoreclose •...
Page 12 6 F 2 S 0 8 3 5 Table 1.1 GRL100 Models (a) Two-terminal line application Model 101B 102B 201B, 204B 202B, 206B 301B 302B 401B 501B 503B DIFG (b) Three-terminal line application / Dual communication for two-terminal line application Model 111B 112B...
Page 13: Application Notes
• A-MODE: applied when the remote terminal relay(s) is an old version of GRL100, namely the following models. GRL100-101A/102A/201A/202A/301A/302A/ 401A/501A/503A GRL100-111A/112A/211A/212A/311A/312A/411A/511A/513A GRL100-201N • B-MODE: standard operating model which provides relay address monitoring function and customisation of transmission data.
Page 14: Protection Schemes
6 F 2 S 0 8 3 5 2.1 Protection Schemes The GRL100 provides the following protection schemes (Appendix A shows block diagrams of the GRL100 series): • Segregated-phase current differential protection • Zero-phase current differential protection • Remote differential trip function •...
Page 15: Current Differential Protection
6 F 2 S 0 8 3 5 2.2 Current Differential Protection 2.2.1 Operation of Current Differential Protection Current differential protection compares the currents flowing into and out of the protected line. The difference of the currents, that is, the differential current, is almost zero when a fault is external or there is no fault, and is equal to the fault current when the fault is internal.
Page 16: Zero-Phase Current Differential Protection
6 F 2 S 0 8 3 5 Tripping output signals can be blocked by the PLC command DIF_BLOCK and CRT_BLOCK. The output signals of DIF-A, DIF-B and DIF-C are also blocked when a communication circuit failure is detected by the data error check, sampling synchronism check or interruption of the receive signals.
Page 17: Fail-Safe Function
6 F 2 S 0 8 3 5 The zero-phase current differential element has a percentage restraining characteristic with weak restraint. For details of the characteristic, see Section 2.11. The scheme logic is shown in Figure 2.2.3.1. The output signal of the differential element DIFG performs time-delayed three-phase tripping of the circuit breaker with the tripping output signal DIFG.FS_TRIP.
Page 18: Remote Differential Trip
6 F 2 S 0 8 3 5 ≥1 OC1-A & DIF.FS-A_OP ≥1 DIF-A_FS DIF.FS_OP ≥1 OC1-B DIF-B_FS & DIF.FS-B_OP DIF-C_FS (see Fig. 2.2.2.1.) ≥1 OC1-C & DIF.FS-C_OP OCD-A & OCD-B & OCD-C & [DIF-FS] ≥1 " " ≥1 " "...
Page 19 6 F 2 S 0 8 3 5 Figure 2.2.5.2(a) and (b) show the RDIF scheme logic at RDIF command sending terminal (= sound terminal) and command receiving terminal (= disabled terminal). The sound terminal sends the command when the tripping signals RDIF-A-S, RDIF-B-S, RDIF-C-S or RDIF-S are output locally and the scheme switches [RDIF] and [TERM] are set to “ON”...
Page 20: Transmission Data
6 F 2 S 0 8 3 5 2.2.6 Transmission Data The following data are transmitted to the remote terminal via the 64kb/s digital link. The data depends on the communication mode and whether a function is used or not. The details are shown in Appendix N.
Page 21 6 F 2 S 0 8 3 5 B-MODE, and the latter is applied to GPS-MODE. The intra-system synchronization keeps the sampling timing error between the terminals within ±10μs or ±20μs and the GPS-based system keeps it within ±5μs or ±10μs for two- or three-terminal applications.
Page 22 6 F 2 S 0 8 3 5 oscillator in the slave terminal. The difference of the transmission delay time T dd (= T d1 − T d2 ) is set to zero when sending and receiving take the same route and exhibit equal delays. When the route is separate and the sending and receiving delays are different, T dd must be set at each terminal to be equal to the sending delay time minus the receiving delay time.
Page 23 6 F 2 S 0 8 3 5 T d = ({T o − (T − T M )}/2 + T dd )/2 The calculated transmission delay time T d1 is divided by the sampling interval T. The mantissa is truncated and the quotient is expressed as an integer. If the integer is set to P, the reception at the slave terminal of the signal sent from the master terminal occurs at P sampling intervals from the transmission.
Page 24 6 F 2 S 0 8 3 5 In the backup modes, the percentage restraint in the small current region can be increased from the normal 16.7% ((1/6)Ir in Figure 2.9.10.1) in accordance with the PDTD setting which is the probable transmission delay time difference between send and receive channels.
Page 25 6 F 2 S 0 8 3 5 than 2 seconds and then open. • If the binary input contact is such as to be closed when the relay is in service, set the BI to "Norm" (normal). The mode changes when the contact is open more than 2 seconds and then closed.
Page 26: Charging Current Compensation
6 F 2 S 0 8 3 5 Sampling address synchronization The same method as described in section 2.2.7.1 is employed in Mode 0 and Mode 2A where the sampling synchronization must be established. It is not employed in Mode 1 and 2B because the sampling address synchronization has already been established in the previous mode.
Page 27 6 F 2 S 0 8 3 5 lines, the charging current which flows as a result of the capacitance of the line (see Figure 2.2.8.1) appears to the protection relay as an erroneous differential current. Terminal A Terminal B GRL100 GRL100 Figure 2.2.8.1 Charging Current...
Page 28: Blind Zone Protection
6 F 2 S 0 8 3 5 2.2.9 Blind Zone Protection The GRL100 relay has “Out-of-Service Detection Logic” as described in Section 2.2.2. This logic functions automatically to detect the remote CB or DS (line disconnecting switch) opened condition as shown in Figure 2.2.9.1. If the remote CB or DS is opened, the received remote current data is set to “zero”...
Page 29: Application To Three-Terminal Lines
6 F 2 S 0 8 3 5 Blind Zone I R (=I F ) I L (=I F ) LOCAL REMOTE LINE FAULT BUSBAR PROT. DIFF RELAY GRL100 (REMOTE) 89L1 DIFF RELAY GRL100 (LOCAL) Comm. Link CB CLOSE COMMAND CBDS-A,B,C CBDS-A,B,C ≧1...
Page 30 6 F 2 S 0 8 3 5 Case 1 Open Case 2 Figure 2.2.10.1 Fault Current Outflow in Internal Fault The larger current outflows from terminal C when the fault location is closer to terminal B and the power source behind terminal C is weaker. In case of a double-circuit three-terminal line, 50% of the fault current flowing in from terminal A can flow out from terminal C if terminal C is very close to the junction and has no power source behind it.
Page 31: Dual Communication Mode
6 F 2 S 0 8 3 5 necessary to check whether any fault causes CT saturation, particularly in the terminal with outflow, and the saturation must be accommodated utilising the DIFI2 setting of the DIF element. 2.2.11 Dual Communication Mode Three-terminal application models have dual communication mode (GRL100-∗1∗).
Page 32 6 F 2 S 0 8 3 5 generated and used to reset the receiving current data from terminal B to zero. Thus, terminal A does not need to operate unnecessarily in response to fault F2. Terminal B detects that terminal A is out-of-service with the out-of-service detection logic and resets the receiving current data from terminal A to zero, and so does not operate in response to fault F1.
Page 33: Dif-A
6 F 2 S 0 8 3 5 DIF-A DIFAT & DIF-B DIFBT & DIF-C DIFCT & Remote Terminal ≥ 1 DIF-A & ≥ 1 DIF-B & ≥ 1 DIF-C & [T.F.C] ≥ 1 "ON" [T.F.C] "ON" DIF.BLOCK Figure 2.2.12.4 Scheme Logic for Through Fault Current Fault current outflow in case of internal fault As shown in Figure 2.2.12.5, the fault current may outflow in case of an internal fault of double-circuit lines.
Page 34 6 F 2 S 0 8 3 5 Element Range Step Default Remarks Communication Mode Phase current DIFI1 0.50 − 10.00A 0.01A 5.00A Small current region (0.10 − 2.00A 0.01A 1.00A)(*1) 3.0 − 120.0A DIFI2 0.1A 15.0A Large current region (0.6 −...
Page 35 6 F 2 S 0 8 3 5 Element Range Step Default Remarks Communication Mode [T.SFT1] ON/OFF Channel 1 bit shifting for multiplexer [T.SFT2] ON/OFF Channel 2 bit shifting for multiplexer [B.SYN1] ON/OFF Channel 1 bit synchronising for multiplexer [B.SYN2] ON/OFF Channel 2 bit synchronising for multiplexer...
Page 36 6 F 2 S 0 8 3 5 If the CT secondary ratings at the local and remote terminals are different, relay model suitable for the CT secondary rating is used at each terminal and then CT ratio matching can be applied the same as above.
Page 37 6 F 2 S 0 8 3 5 double-circuit lines, lines with outer loop circuit, or double-circuit lines with one-and-a-half busbar system. DIFI2 should be set larger than the possible largest value of outflow current in case of an internal fault. As the occurrence of current outflow depends on the power system configuration or operation, it is necessary to check whether it is possible for the fault current to flow out of the line.
Page 38 6 F 2 S 0 8 3 5 ‘GPS-MODE’. The ‘GPS-MODE’ is only available for the relay provided with a GPS interface. PDTD, GPSBAK, AUTO2B, SRCθ : Available for [COMMODE]=‘GPS-MODE’ setting. See Section 2.2.7. Note: Do not set [TERM] to “Dual” in GPS-mode. Setting of TDSV, TCDT1 and TCDT2 The TDSV is a transmission delay time threshold setting.
Page 39 6 F 2 S 0 8 3 5 B.SYN1: is set to 'ON' when the relay is linked via multiplexer, and set to 'OFF' when direct link is applied. (for channel 1) This setting is available for CCITT G703-1.2.1, 1.2.2, 1.2.3, X21 and optical interface (short distance: 2km class).
Page 40 6 F 2 S 0 8 3 5 Setting depending on communication mode The setting depending on communication mode is shown in the following table. Setting A-MODE B-MODE GPS-MODE Default setting Remarks Communication COMMODE Must select “A” of Must select “B” of Must select “GPS”...
Page 41 6 F 2 S 0 8 3 5 (2) If DIFG or OST/FL is not used, the bits for CBLS condition can be assigned instead of the bits for DIFG or OST/FL by PLC function. The open terminal detection in B-MODE and GPS-MODE do not automatically change “Master”...
Page 42: Overcurrent Backup Protection
6 F 2 S 0 8 3 5 2.3 Overcurrent Backup Protection Inverse time and definite time overcurrent protections are provided for phase faults and earth faults respectively. Scheme logic The scheme logic of the overcurrent backup protection is shown in Figure 2.3.1. The overcurrent protection issues single-phase tripping signals in the operation of OC and OCI, and issues a three-phase tripping signal BU-TRIP in the operation of EF or EFI element.
Page 43 6 F 2 S 0 8 3 5 2.3.1 Inverse Time Overcurrent Protection In a system in which the fault current is mostly determined by the fault location, without being greatly affected by changes in the power source impedance, it is advantageous to use the inverse definite minimum time (IDMT) overcurrent protection.
Page 44 6 F 2 S 0 8 3 5 The minimum setting is restricted so as not to operate on false zero-sequence currents caused by an unbalance in the load current, errors in the current transformer circuits or zero-sequence mutual coupling of parallel lines. Figure 2.3.1.1 Current Settings in Radial System Time setting Time setting is performed to provide selectivity in relation with the relays on the adjacent lines.
Page 45 6 F 2 S 0 8 3 5 Setting The setting elements necessary for the definite time overcurrent protection and their setting ranges are shown below. Element Range Step Default Remarks 0.5 - 100.0 A 0.1 A 10.0 A Phase overcurrent ( 0.1 - 20.0 A 0.1 A 2.0 A) (*)
Page 46: Transfer Trip Function
6 F 2 S 0 8 3 5 2.4 Transfer Trip Function The GRL100 provides the transfer trip function which receives a trip signal from the remote terminal and outputs a trip command. Two transfer trip commands are provided. The scheme logic is shown in Figure 2.4.1.
Page 47 6 F 2 S 0 8 3 5 GRL100 (Receive) GRL100 (Send) (−) User configurable User configurable command data (send) command data (receive) 1688:TR1-A-R1 BIm command Transfer trip (A-phase) Sequence Sequence logic logic 1689:TR1-B-R1 Transfer trip BIn command (B-phase) by PLC by PLC 1690:TR1-C-R1 Transfer trip...
Page 48: Out-Of-Step Protection
6 F 2 S 0 8 3 5 2.5 Out-of-step Protection The GRL100 out-of-step protection (OST) operates only when the out-of-step loci cross the protected line and provides optimal power system separation in case of power system step out. The OST compares the phase of the local and remote positive sequence voltages and detects the out-of-step when the difference in the phase angle exceeds 180°.
Page 49 6 F 2 S 0 8 3 5 At terminal A, the terminal voltage V A is taken as a reference voltage. Then, the phase angle of the remote terminal voltage V B changes as shown in Figure 2.5.2. Out-of-step is detected when V B moves from the second quadrant to the third quadrant or vice versa.
Page 50: Thermal Overload Protection
6 F 2 S 0 8 3 5 2.6 Thermal Overload Protection The temperature of electrical plant rises according to an I t function and the thermal overload protection in GRL100 provides a good protection against damage caused by sustained overloading.
Page 51 6 F 2 S 0 8 3 5 is switched onto a system that has previously been loaded to 90% of its capacity. Thermal Curves (Cold Curve - no Thermal Curves (Hot Curve - 90% prior load) prior load) 1000 1000 τ...
Page 52 6 F 2 S 0 8 3 5 Setting The table below shows the setting elements necessary for the thermal overload protection and their setting ranges. Element Range Step Default Remarks 2.0 – 10.0 A 0.1 A 5.0 A Thermal overload setting. (0.40 –...
Page 53: Breaker Failure Protection
6 F 2 S 0 8 3 5 2.7 Breaker Failure Protection When a fault remains uncleared due to a breaker failure, the breaker failure protection (BFP) clears the fault by backtripping the adjacent breakers. If the current continues to flow following the output of a trip command, the BFP judges it as a breaker failure.
Page 54 6 F 2 S 0 8 3 5 The backtrip signal to the adjacent breakers CBF-TRIP is output if the overcurrent element OCBF operates continuously for the setting time of the delayed pick-up timer TBF2 after the start-up. Tripping of the adjacent breakers can be blocked with the scheme switch [BF2]. There are two kinds of mode of the retrip signal to the original breaker RETRIP: the mode in which RETRIP is controlled by the overcurrent element OCBF, and the direct trip mode in which RETRIP is not controlled.
Page 55 6 F 2 S 0 8 3 5 Setting The setting elements necessary for the breaker failure protection and its setting ranges are as follows: Element Range Step Default Remarks − OCBF 0.1A 4.0A Overcurrent setting 10.0A − 0.1A 0.8A) (*) (0.1 2.0A −...
Page 56: Tripping Output
6 F 2 S 0 8 3 5 2.8 Tripping Output Figure 2.8.1 shows the tripping logic. Segregated-phase differential protection outputs per-phase-based tripping signals such as DIF.FS-A_TP, DIF.FS-B_TP and DIF.FS-C_TP, etc. Zero-phase differential protection, thermal overload protection, earth fault backup protection and out-of-step protection output three-phase tripping signals DIFG.FS_TRIP, THM-T, BU-TRIP and OSTT.
Page 57 6 F 2 S 0 8 3 5 In the following cases, per-phase-based tripping is converted to three-phase tripping. • When autoreclose is prohibited by a binary input signal (ARC−BLK = 1) • When the tripping mode selection switch [TPMODE] is set to "3PH" (This applies to the GRL100 model 100s which does not have autoreclose.) •...
Page 58 6 F 2 S 0 8 3 5 When the external autoreclose is set to the single-phase or single- or three-phase mode, set the switch to "1PH". The GRL100 outputs a single-phase tripping command for a single-phase fault and three-phase trip command for a multi-phase fault. When the external autoreclose is set in the three-phase mode, set the switch to "3PH".
Page 59: Fault Detector
6 F 2 S 0 8 3 5 2.9 Fault Detector GRL100 model 400s and 500s are provided with a fault detector (FD) which functions as a check relay and enhances security, or prevents false tripping due to a single failure in the protection system.
Page 60 6 F 2 S 0 8 3 5 Lever Four pairs of pins Connector Front Rear plug Ribbon cable receptacle Figure 2.9.2 FD Module • Short-circuit the pins 1-2 (located topmost) for the J1 to disable the OCMF. Short-circuit the pins 3-4 (located second from the top) for the J1 to disable the OCDF. •...
Page 61 6 F 2 S 0 8 3 5 Figure 2.9.3 shows the tripping output circuit when the FD is in service. The checking output contact is connected with A- to C-phase tripping output contacts in series. They are connected outside the relay as shown by the broken line. Checking output relay 60ms Tripping output relay...
Page 62: Autoreclose
6 F 2 S 0 8 3 5 2.10 Autoreclose 2.10.1 Application Most faults that occur on high-voltage or extra-high-voltage overhead lines are transient faults caused by lightning. If a transient fault occurs, the circuit breaker is tripped to isolate the fault, and then reclosed following a time delay to ensure that the hot gases caused by the fault arc have de-ionized.
Page 63 6 F 2 S 0 8 3 5 This reclosing mode is simply expressed as "SPAR & TPAR" in the following descriptions. Multi-phase autoreclose: This autoreclose mode can be applied to double-circuit lines. In this mode, only the faulted phases are tripped and reclosed when the terminals of double-circuit lines are interconnected during the dead time through at least two or three different phases.
Page 64: Scheme Logic
6 F 2 S 0 8 3 5 2.10.2 Scheme Logic 2.10.2.1 One-breaker Autoreclose Figure 2.10.2.1 shows the simplified scheme logic for the single-shot autoreclose. Autoreclose for a further fault incident is available when the circuit breaker is closed and ready for autoreclose (CB-RDY=1), the reclosing mode selection switch [ARC-M] is set to "SPAR", "TPAR", "SPAR &...
Page 65 6 F 2 S 0 8 3 5 [ARC-M] ARC1 READY TRDY1 TSPR1 "SPAR", "TPAR", "SPAR & TPAR", & "MPAR2", "MPAR3" & & & (For Leader CB) ≥1 Single-phase trip 0.1 - 10s 1571 CB1_READY & 5-300s ≥1 0.01-10s [ARC-M] ＆...
Page 66 6 F 2 S 0 8 3 5 is assigned by the PLC as a default setting.) If [ARC-M] is set to "SPAR" or "Disable", autoreclose is not activated. In "SPAR & TPAR" or "TPAR", if the operating conditions of the voltage and synchronism check elements assigned by the PLC as default are not satisfied during three-phase reclosing, the TRR is then picked up and reclosing is reset.
Page 67 6 F 2 S 0 8 3 5 Voltage and synchronism check There are four voltage modes as shown below when all three phases of the circuit breaker are open. The voltage and synchronism check is applicable to voltage modes 1 to 3 and controls the energizing process of the lines and busbars in the three-phase autoreclose mode.
Page 68 6 F 2 S 0 8 3 5 When [VCHK] is set to "LB", the line is energized in the direction from the busbar to line under the "live bus and dead line" condition. When [VCHK] is set to "DB", the lines are energized in the direction from the line to busbar under the "dead bus and live line"...
Page 69 6 F 2 S 0 8 3 5 Autoreclosing requirement Using PLC function, various reclose requirements can be designed. In Figure 2.10.2.1, a reclose requirement for "SPAR", "TPAR", "SPAR&TPAR" or "MPAR" can be respectively assigned to the following signals by PLC: "SPAR": [SPR.L-REQ] "TPAR":...
Page 70 6 F 2 S 0 8 3 5 In case the interconnection condition LINK is not satisfied, the following operations can be selected by the scheme switch [MA-NOLK] setting. Setting of [MA-NOLK] Operation Final Trip Three-phase autoreclose Single- and Three-phase autoreclose If “FT”...
Page 71 6 F 2 S 0 8 3 5 Permanent fault When reclose-onto-a-fault is activated when a permanent fault exists, three-phase final tripping is performed. However, this operation is performed only in the single-shot autoreclose mode. In the multi-shot autoreclose mode, reclosing is retried as shown below, for multi-shot autoreclosing.
Page 72 6 F 2 S 0 8 3 5 When the three-shot mode is selected for the multi-shot mode, autoreclose is retried again after the above tripping occurs. At this time, the TS3 and TS3R are started. The third shot autoreclose is performed only when the voltage and synchronism check element operates after the period of time set on the TS3 has elapsed.
Page 73 6 F 2 S 0 8 3 5 Autoreclose is not activated when an autoreclose prohibiting binary input signal is applied at the local or remote terminal. • ARC_BLOCK signal common for leader and follower CB • ARC_BLOCK1 signal for leader CB •...
Page 74 6 F 2 S 0 8 3 5 Autoreclose start requirement Using PLC function, various autoreclose start requirements can be designed. In Figure 2.10.2.8, a reclose start requirement for "SPAR", "TPAR", "SPAR&TPAR" or "MPAR" can be respectively assigned to the following signals by PLC: "SPAR": [SPR.F-ST.REQ] "TPAR":...
Page 75 6 F 2 S 0 8 3 5 [ARC-M] ARC2 READY TRDY2 TSPR2 "SPAR", "TPAR", "SPAR & TPAR", & "MPAR2", "MPAR3" ≥1 & & (For Follower CB) & & ≥1 Single-phase trip 0.1 - 10s 1572 CB2_READY & 5-300s ≥1 0.01-10s [ARC-M] SPR.F-REQ...
Page 76 6 F 2 S 0 8 3 5 Figure 2.10.2.9 shows the energizing control scheme of the two circuit breakers in the three-phase autoreclose. OVB and UVB are the overvoltage and undervoltage detectors of busbar voltage V B in Figure 2.10.2.7. OVL1 and UVL1 are likewise the overvoltage and undervoltage detectors of line voltage V L1 .
Page 77 6 F 2 S 0 8 3 5 The voltage and synchronism check is performed as shown below according to the [ARC-CB] settings: Setting of [ARC-CB] Voltage and synchronism check A voltage and synchronism check is performed using voltages V B and V L1 . ONE or O1 A voltage and synchronism check is performed using voltages V L1 and V L2 .
Page 78 6 F 2 S 0 8 3 5 Note: As this three-phase autoreclose is applied only to the center breaker, the settings of the [VCHK] is the same as that of one-breaker autoreclose. When [ARC-CCB] is set to "MPAR", the center breaker is also reclosed in the multi-phase autoreclose mode at the time of the TMPR2 setting.
Page 79 6 F 2 S 0 8 3 5 T3PLL 0.01 – 1.00s 0.01s 0.05s Line three voltage check time 0.1 – 10.0s 0.1s 0.2s Reclosing signal output time 5.0 – 300.0s 0.1s 20.0s Second shot dead time 5.0 – 300.0s 0.1s 20.0s Third shot dead time...
Page 80 6 F 2 S 0 8 3 5 To determine the dead time, it is essential to find an optimal value while taking into consideration the de-ionization time and power system stability factors, which normally contradict each other. Normally, a longer de-ionization time is required for a higher line voltage or larger fault current. For three-phase autoreclose, the dead time is generally 15 to 30 cycles.
Page 81: Autoreclose Output Signals
6 F 2 S 0 8 3 5 2.10.3 Autoreclose Output Signals The autoreclose scheme logic has two output reclosing signals: ARC1 and ARC2. ARC1 is a reclosing signal for single breaker autoreclose or a reclosing signal for the busbar breaker in a two-breaker autoreclose scheme.
Page 82: Characteristics Of Measuring Elements
6 F 2 S 0 8 3 5 2.11 Characteristics of Measuring Elements 2.11.1 Segregated-phase Current Differential Element DIF and DIFSV The segregated-phase current differential elements DIF have dual percentage restraint characteristics. Figure 2.11.1.1 shows the characteristics on the differential current (Id) and restraining current (Ir) plane.
Page 83: Zero-Phase Current Differential Element Difg
6 F 2 S 0 8 3 5 I out I out = I in DIFI2 Operating Zone DIFI1 I in Figure 2.11.1.2 Segregated-phase Current Differential Element (Iin-Iout Plane) Characteristic A is expressed by the following equation: I out ≤ (5/7)(I in - DIFI1) Characteristic B is expressed by the following equation: I out ≤...
Page 84: Inverse Definite Minimum Time (Idmt) Overcurrent Element Oci And Efi
6 F 2 S 0 8 3 5 I d ≥ (1/6)I r + (5/6)DIFGI where DIFGI is a setting and defines the minimum residual fault current. 2.11.3 Inverse Definite Minimum Time (IDMT) Overcurrent Element OCI and EFI As shown in Figure 2.11.3.1, the IDMT element has one long time inverse characteristic and three inverse time characteristics in conformity with IEC 60255-3.
Page 85: Thermal Overload Element
6 F 2 S 0 8 3 5 Standard Inverse 0.14 t = T × − 1 0.02 (I/Is) Very Inverse 13.5 t = T × (I/Is) − 1 Extremely Inverse t = T × − 1 (I/Is) where, t = operating time I = fault current Is = current setting T = time multiplier setting...
Page 86: Voltage And Synchronism Check Elements Ovl, Uvl, Ovb, Uvb And Syn
6 F 2 S 0 8 3 5 2.11.6 Voltage and Synchronism Check Elements OVL, UVL, OVB, UVB and SYN The voltage check and synchronism check elements are used for autoreclose. The output of the voltage check element is used to check whether the line and busbar are dead or live.
Page 87: Current Change Detection Element Ocd
6 F 2 S 0 8 3 5 Note: When the phase difference setting and the synchronism check time setting are given, a detected maximum slip cycle is determined by the following equation: SY1 θ 180° × T SYN1 where, f = slip cycle SY1θ...
Page 88 6 F 2 S 0 8 3 5 Multi-level overcurrent element OCMF The OCMF is used as a fault detector for the out-of-step protection. The current fluctuates in an out-of-step situation. To detect this current securely, the OCMF has seven current level detectors. Each current level detector LD1 to LD7 operates when the current exceeds each setting L1 to L7 and resets when the current falls below 80% of the setting.
Page 89 6 F 2 S 0 8 3 5 Single Shot & ≥1 OCMF Output & • • • • • • • • • & Figure 2.11.9.2 OCMF Output Logic Current change detection element OCDF The characteristic of OCDF is same as the OCD. Undervoltage change detection element UVDF The UVDF operates if a voltage drops by 7% compared to that of one cycle before.
Page 90: Communication System
6 F 2 S 0 8 3 5 2.12 Communication System 2.12.1 Signaling Channel The GRL100 transmits all the local data to the remote terminal by coded serial messages. Two signaling channels are required for two-terminal line protection, six for three-terminal line protection and four for dual communication for two-terminal line as shown in Figure 2.12.1.1.
Page 91: Linking To Communication Circuit
6 F 2 S 0 8 3 5 2.12.2 Linking to Communication Circuit The GRL100 can be provided with one of the following interfaces by order type and linked to a dedicated optical fiber communication circuit or multiplexed communication circuit. •...
Page 92: Setup Of Communication Circuit
6 F 2 S 0 8 3 5 Direct link When connected to single-mode (SM) 10/125μm type of dedicated optical fiber communication circuits and using Duplex LC type connector for 30km class, the optical transmitter is an LD with output power of more than –13dBm and the optical receiver is a PIN diode with a sensitivity of less than –30dBm.
Page 93 6 F 2 S 0 8 3 5 Terminal A Terminal B GRL100 GRL100 (a) Direct Link Using Optical Fiber Terminal A Terminal B GRL100 GRL100 MUX: Multiplexer O/E: Optical interface unit (b) Link via Multiplexer (Optical Interface) Terminal B Terminal A GRL100 GRL100...
Page 94 6 F 2 S 0 8 3 5 Terminal A Terminal B GRL100 GRL100 Signal ground Signal ground Shield Shield (e) Link via Multiplexer (Electrical Interface in accordance with X.21, RS530) Terminal A Terminal B GRL100 GRL100 Signal ground Signal ground Shield Shield Signal ground...
Page 95: Telecommunication Channel Monitoring
6 F 2 S 0 8 3 5 Terminal A Terminal B GRL100 GRL100 Terminal C GRL100 Figure 2.12.3.2 Communication Circuit Setup for Three-terminal Applications Terminal A Terminal B GRL100 GRL100 Note: The corresponding channels are connected to each other. Figure 2.12.3.3 Dual Communication Mode 2.12.4 Telecommunication Channel Monitoring If a failure occurs or noise causes a disturbance in the telecommunication channel, this may...
Page 96: Fault Locator
6 F 2 S 0 8 3 5 2.13 Fault Locator 2.13.1 Application When the fault point is determined by measuring the impedance to it using local voltages and currents, the measurement error is increased by the phase difference between the local and remote currents flowing into the fault point.
Page 97: Calculation Of Distance To Fault
6 F 2 S 0 8 3 5 2.13.2 Calculation of Distance to Fault Calculation Principle In the case of a two-terminal line as shown in Figure 2.13.2.1, the relationship between the voltages at the local and remote terminals and the voltage at the fault point are expressed by Equations (1) and (2).
Page 98 6 F 2 S 0 8 3 5 Terminal A Junction Terminal B V C , I C Terminal C Figure 2.13.2.2 Three-terminal Model χ A = (V A − V B + Z A (I B + I C ) + Z B I B ) / Z A I d (5) χ...
Page 99: Starting Calculation
6 F 2 S 0 8 3 5 I B1 , I B2 and I B0 = positive, negative and zero sequence current at terminal B I d1 ,I d2 and I d0 = positive, negative and zero sequence differential current Z 11 , Z 12 and Z 10 are expressed by the following equations assuming that Z ab = Z ba , Z bc = Z cb and Z ca = Z ac : Z 11 = (Z aa + Z bb + Z cc - Z ab - Z bc - Z ca )/3...
Page 100 6 F 2 S 0 8 3 5 Inputting positive-sequence impedances: This can be done provided that Z aa ≒ Z bb ≒ Z cc and Z ab ≒ Z bc ≒ Z ca . The positive-sequence impedance is input using the expression of the resistive component R 1 and reactive component X 1 .
Page 101 6 F 2 S 0 8 3 5 Item Range Step Default Remarks Fault locator ON/OFF Line data Section 1 1R 1 0.00 - 199.99 Ω 0.10 Ω 0.20 Ω (0.0 - 999.9 Ω 0.1 Ω 1.0 Ω) 1X 1 0.00 - 199.99 Ω...
Page 102 6 F 2 S 0 8 3 5 Section 3 0.00 - 199.99 Ω 0.10 Ω 0.20 Ω 3R 1 (0.0 - 999.9 Ω 0.1 Ω 1.0 Ω) 3X 1 0.00 - 199.99 Ω 0.10 Ω 2.00 Ω (0.0 - 999.9 Ω 0.1 Ω...
Page 103: Technical Description
6 F 2 S 0 8 3 5 3. Technical Description 3.1 Hardware Description 3.1.1 Outline of Hardware Modules The GRL100 models are classified into two types by their case size. Models 101, 111, 102, 112, 201, 204, 211, 214, 301 and 311 have type A cases, while models 202, 206, 212, 216, 302, 312, 401, 411, 501, 511, 503 and 513 have type B cases.
Page 104 6 F 2 S 0 8 3 5 Front view without front panel SPM IO#1 IO#2 Figure 3.1.1.1 Hardware Structure (Model: 101, 111) IO#3 IO#2 SPM IO#1 Figure 3.1.1.2 Hardware Structure (Model: 102, 112) ⎯ 103 ⎯...
Page 105 6 F 2 S 0 8 3 5 IO#3 IO#2 IO#1 Note: IO#1 is IO1 module for models 201, 211, 301 and 311, and is IO8 module for models 204 and 214. IO#2 and IO#3 are IO2 module and IO6 module respectively.
Page 106 6 F 2 S 0 8 3 5 IO#2 IO#4 IO#1 IO#3 Note: IO#1, IO#2, IO#3 and IO#4 are IO1, IO2, IO5 and FD module respectively. Figure 3.1.1.5 Hardware Structure (Model: 401, 411, 501, 511, 503, 513) The correspondence between each model and module used is as follows: Model Module ×...
Page 107 6 F 2 S 0 8 3 5 Telecommunication system Binary I/O Module (IO#1) DC/DC Converter supply Transformer Signal Processing and Communication Module Module (VCT) (SPM) AC input Photocoupler ×15 Binary input MPU2 CT×4 Analog Auxiliary relay Converter filter Binary output (High speed) Trip MPU1...
Page 108 6 F 2 S 0 8 3 5 Telecommunication system Binary I/O Module (IO#1)(*3) DC/DC Converter supply Transformer Signal Processing and Communication Module Module (VCT) (SPM) Photocoupler ×15 or ×12(IO8) Binary input MPU2 CT×4 Analog Auxiliary relay Converter filter Binary output (High speed) Trip MPU1...
Page 109 6 F 2 S 0 8 3 5 Telecommunication system Binary I/O Module (IO#1) DC/DC Converter supply Transformer Signal Processing and Communication Module Photocoupler Module(VCT) (SPM) Binary input ×15 Binary output Auxiliary relay MPU2 Trip CT×4 Analog (High speed) command converter ×6 (or CT×8)
Page 110: Transformer Module
6 F 2 S 0 8 3 5 3.1.2 Transformer Module The transformer module (VCT module) provides isolation between the internal and external AC circuits through an auxiliary transformer and transforms the magnitude of AC input signals to suit the electronic circuits. The AC input signals are as follows: •...
Page 111: Signal Processing And Communication Module
6 F 2 S 0 8 3 5 3.1.3 Signal Processing and Communication Module The signal processing and communication module (SPM) incorporates a signal processing circuit and a communication control circuit. Figure 3.1.3.1 shows the block diagram. The telecommunication control circuit is incorporated in the sub-module GCOM. The signal processing circuit consists of an analog filter, multiplexer, analog to digital (A/D) converter, main processing unit (MPU1) and memories (RAM and ROM), and executes all kinds of processing including protection, measurement, recording and display.
Page 112: Binary Input And Output Module
6 F 2 S 0 8 3 5 3.1.4 Binary Input and Output Module There are four types of binary input and output module (IO module): These modules are used depending on the model (see Section 3.1.1). 3.1.4.1 IO1 and IO8 Module IO1 and IO8 provide a DC/DC converter, binary inputs and binary outputs for tripping.
Page 113 6 F 2 S 0 8 3 5 IO8 module Line filter DC/DC converter (−) supply Photo-coupler Auxiliary relay (high speed) Tripping Binary command input (× 3) signals (× 12) Figure 3.1.4.2 IO8 Module ⎯ 112 ⎯...
Page 114 6 F 2 S 0 8 3 5 3.1.4.2 IO2 Module As shown in Figure 3.1.4.3, the IO2 module incorporates 3 photo-coupler circuits (BI) for binary input signals, 14 auxiliary relays (13 BOs and FAIL) for binary output signals and an RS485 transceiver.
Page 115 6 F 2 S 0 8 3 5 3.1.4.3 IO3 and IO4 Modules The IO3 and IO4 modules are used to increase the number of binary outputs. The IO3 module incorporates 10 auxiliary relays (BO) for binary outputs. The IO4 module incorporates 14 auxiliary relays (BO) for binary outputs and 3 photo-coupler circuits (BI).
Page 116 6 F 2 S 0 8 3 5 3.1.4.4 IO5 and IO6 Modules The IO5 and IO6 modules are used to increase the number of binary inputs and outputs. The IO5 module incorporates 10 photo-coupler circuits (BI) for binary inputs and 10 auxiliary relays (BO) for binary outputs.
Page 117: Human Machine Interface (Hmi) Module
6 F 2 S 0 8 3 5 3.1.5 Human Machine Interface (HMI) Module The operator can access the GRL100 via the human machine interface (HMI) module. As shown in Figure 3.1.5.1, the HMI module has a liquid crystal display (LCD), light emitting diodes (LED), view and reset keys, operation keys, monitoring jacks and an RS232C connector on the front panel.
Page 118 6 F 2 S 0 8 3 5 LINE DIFFERENTIAL PROTECTION Liquid crystal display Light emitting diode GRL100 201B-31-10 100/110/115/120V Operation keys Monitoring jack • RS232C connector Figure 3.1.5.1 Front Panel ⎯ 117 ⎯...
Page 119: Fault Detector Module
6 F 2 S 0 8 3 5 3.1.6 Fault Detector Module GRL100-400 and -500 series models have an independent fault detector in the form of a check relay, and provide the highest level of security against non-power system fault tripping. As shown in Figure 3.1.6.1, the fault detector module consists of an analog filter, multiplexer, analog to digital (A/D) converter, main processing unit (MPU) and output auxiliary relays.
Page 120: Input And Output Signals
6 F 2 S 0 8 3 5 3.2 Input and Output Signals 3.2.1 Input Signals AC input signals Table 3.2.1.1 shows the AC input signals necessary for each of the GRL100 models and their respective input terminal numbers. The AC input signals are input via terminal block TB1 for all models.
Page 121: Crt_Block
6 F 2 S 0 8 3 5 Binary input signals Table 3.2.1.2 shows the binary input signals necessary for the GRL100, their driving contact conditions and functions enabled. Input signals are configurable and depend on the GRL100 models. See Appendix G for the default settings and external connections.
Page 122 6 F 2 S 0 8 3 5 Table 3.2.1.3 Binary Input Signals for Models 2∗4 and 2∗6 Module Setting BI No. Contents Name Signal No. & Signal Name Norm or Inv IO#1 CB1 AUXILIARY CONTACT - A Ph 1536 CB1_CONT-A CB1 AUXILIARY CONTACT - B Ph 1537...
Page 123: Binary Output Signals
6 F 2 S 0 8 3 5 3.2.2 Binary Output Signals The number of binary output signals and their output terminals vary depending on the relay model. For all models, all outputs except the tripping command and relay failure signal can be configured.
Page 124: Automatic Supervision
6 F 2 S 0 8 3 5 3.3 Automatic Supervision 3.3.1 Basic Concept of Supervision Though the protection system is in the non-operating state under normal conditions, it is waiting for a power system fault to occur at any time and must operate for faults without fail. Therefore, the automatic supervision function, which checks the health of the protection system during normal operation, plays an important role.
Page 125: Ct Circuit Current Monitoring
6 F 2 S 0 8 3 5 monitoring with the introduction of the residual circuit current can be performed with higher sensitivity than negative sequence monitoring. A/D accuracy checking An analog reference voltage is input to a prescribed channel in the analog-to-digital (A/D) converter, and the system checks that the data after A/D conversion is within the prescribed range and that the A/D conversion characteristics are correct.
Page 126: Ct Circuit Failure Detection
6 F 2 S 0 8 3 5 k 0 = 20% of rated current The CT circuit current monitoring allows high sensitivity detection of failures that have occurred in the AC input circuit. This monitoring can be disabled by the scheme switch [CTSV]. 3.3.4 CT Circuit Failure Detection If a failure occurs in a CT circuit, the differential elements may operate incorrectly.
Page 127: Differential Current (Id) Monitoring
6 F 2 S 0 8 3 5 3.3.5 Differential Current (Id) Monitoring The DIFSV element is provided to detect any erroneous differential current appearing as a result of CT circuit failure. The tripping output signal of the DIF elements can be blocked when the DIFSV element output is maintained for the setting time of TIDSV.
Page 128: Failure Alarms
6 F 2 S 0 8 3 5 To monitor the disconnector, one pair of normally open contacts 89A and normally closed contacts 89B are introduced. Disconnector failure is detected when both 89A and 89B are simultaneously in the open or closed state for the prescribed period. The monitoring is blocked by setting the scheme switch [LSSV] to OFF.
Page 129: Trip Blocking
6 F 2 S 0 8 3 5 (2) The LED is on when the scheme switch [SVCNT] is set to "ALM", and off when "ALM & BLK" (refer to Section 3.3.11). (3) Whether the LED is lit or not depends on the degree of voltage drop. (4) The binary output relay "FAIL"...
Page 130: Recording Function
6 F 2 S 0 8 3 5 3.4 Recording Function The GRL100 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 GRL100, a tripping command of the...
Page 131: Event Recording
6 F 2 S 0 8 3 5 Power system quantities The following power system quantities in pre-faults and post-faults are recorded. The power system quantities are not recorded for evolving faults. - Magnitude and phase angle of phase voltage (V a , V b , V c ) - Magnitude and phase angle of phase current at the local terminal (I a , I b , I c ) - Magnitude and phase angle of phase voltage for autoreclose (V s1 , V s2 ) - Magnitude and phase angle of symmetrical component voltage (V 1 , V 2 , V 0 )
Page 132: Disturbance Recording
6 F 2 S 0 8 3 5 3.4.3 Disturbance Recording Disturbance recording is started when overcurrent or undervoltage starter elements operate or a tripping command is output, or PLC command by user-setting (max. 4: Signal No. 2632 to 2635) is outputted.
Page 133 6 F 2 S 0 8 3 5 Element Range Step Default Remarks [TRIP] ON/OFF Start by tripping command [OCP-S] ON/OFF Start by OCP-S operation [OCP-G] ON/OFF Start by OCP-G operation [UVP-S] ON/OFF Start by UVP-S operation [UVP-G] ON/OFF Start by UVP-G operation ⎯...
Page 134: Metering Function
6 F 2 S 0 8 3 5 3.5 Metering Function The GRL100 performs continuous measurement of the analog input quantities. The measurement data shown below is updated every second and displayed on the LCD of the relay front panel or on the local or remote PC. The model 100 series measures current quantities only. - Magnitude and phase angle of phase voltage (V a , V b , V c ) - Magnitude and phase angle of phase current at the local terminal (I a , I b , I c ) - Magnitude and phase angle of phase voltage for autoreclose (V s1 , V s2 )
Page 135: User Interface
6 F 2 S 0 8 3 5 4. User Interface 4.1 Outline of User Interface The user can access the relay from the front panel. Local communication with the relay is also possible using a personal computer (PC) via an RS232C port.
Page 136 6 F 2 S 0 8 3 5 input or change set values. The function of each key is as follows: 0-9, − : Used to enter a selected number, numerical values and text strings. Used to move between lines displayed on a screen. Keys 2, 4, 6 and 8 marked with are also used to enter text strings.
Page 137: Communication Ports
6 F 2 S 0 8 3 5 4.1.2 Communication Ports The following interfaces are provided as communication ports: • RS232C port • RS485, Fibre optic or Ethernet LAN port for serial communication • IRIG-B port • Interface port for telecommunication link RS232C port This connector is a standard 9-way D-type connector for serial port RS232C transmission and is mounted on the front panel.
Page 138 6 F 2 S 0 8 3 5 36-pin terminal block 20-pin terminal block ST, LC type connector or D-sub connector for Telecommunication IRIG BNC connector RS485 connection terminal RJ45 connector (option) Relay rear view (Case Type A) ST, LC type connector or D-sub connector for Telecommunication IRIG BNC...
Page 139: Operation Of The User Interface
6 F 2 S 0 8 3 5 4.2 Operation of the User Interface The user can access such functions as recording, measurement, relay setting and testing with the LCD display and operation keys. Note: LCD screens depend on the relay model and the scheme switch setting. Therefore, LCD screens described in this section are samples of typical model.
Page 140 6 F 2 S 0 8 3 5 Press the RESET key to turn off the LEDs and LCD display. Notes: 1) When configurable LEDs (LED1 through LED4) are assigned to latch signals by trigger of RESET tripping, press the key more than 3s until the LCD screens relight.
Page 141 6 F 2 S 0 8 3 5 Press the RESET key to turn off the LCD display. However, if the failure continues, the "ALARM" LED remains lit. After recovery from a failure, the "ALARM" LED and "Auto-supervision" display turn off automatically.
Page 142: Relay Menu
6 F 2 S 0 8 3 5 4.2.2 Relay Menu Figure 4.2.2.1 shows the menu hierarchy in the GRL100. The menu has five sub-menus, "Record", "Status", "Setting (view)", "Setting (change)", and "Test". For details of the menu hierarchy, see Appendix E. Menu Record Fault record...
Page 143 6 F 2 S 0 8 3 5 Record In the "Record" menu, the fault records, event records and disturbance records can be displayed or erased. Furthermore, autoreclose function can be displayed in counter form or reset. Status The "Status" menu displays the power system quantities, binary input and output status, relay measuring element status, signal source for time synchronization (IRIG-B, RSM, IEC or GPS), terminal condition (In- or out-of-service) and adjusts the clock.
Page 144: Displaying Records
6 F 2 S 0 8 3 5 S c h e m e s w i t c h A R C - E X T 0 = O f f 1 = O n A R C - B U 0 = O f f 1 = O n A R C D I F G...
Page 145 6 F 2 S 0 8 3 5 ／４Ｆａｕｌｔｒｅｃｏｒｄ＃１３／４５ Date and Time １６／Ｏｃｔ／１９９７１８：１３：５７．０３１ Fault phase ＰｈａｓｅＡＢＣＮＴｒｉｐＡＢＣ Tripping phase Tripping mode ＤＩＦ Fault location ＊＊＊．＊ｋｍ（Ｊｕｎｃｔｉｏｎ－Ｒｅｍｏｔｅ１）＊ＯＢ＊ＮＣ＊ＣＦＰｒｅｆａｕｌｔｖａｌｕｅｓＶａ＊＊＊．＊ｋＶ...
Page 146 6 F 2 S 0 8 3 5 F a u l t r e c o r d C l e a r a l l f a u l t r e c o r d s ? E N T E R = Y e s C A N C E L = N o •...
Page 147 6 F 2 S 0 8 3 5 4.2.3.3 Displaying Disturbance Records Details of disturbance records can be displayed on the PC screen only (*); the LCD displays only the recorded date and time for all disturbances stored in the relay. To display them, do the following: (*) For the display on the PC screen, refer to RSM100 manual.
Page 148: Displaying The Status
6 F 2 S 0 8 3 5 c o u n t e c l o s e 2 = R e s e t • Select 1 (= Display) to display the autoreclose counts. A u t o r e c l o s e c o u n t S P A R T P A R...
Page 149 6 F 2 S 0 8 3 5 S t a t u s 1 = M e t e r i n g 2 = B i n a r y I / O 3 = R e l a y e l e m e n t 4 = T i m e s y n c...
Page 150 6 F 2 S 0 8 3 5 B i n a r y i n p u t & o u t p u t I n p u t ( I O # 1 [ 0 0 0 0 0 0 0 0 0 0 0 0...
Page 151 6 F 2 S 0 8 3 5 DIFG — — — — — — — — — — — DIF, DIFG α β α β — — — — — — — — — OST1 OST2 OCBF — — —...
Page 152: Viewing The Settings
6 F 2 S 0 8 3 5 4.2.4.5 Adjusting the Time To adjust the clock when the internal clock is running locally, do the following: • Select 2 (= Status) on the top "MENU" screen to display the "Status" screen. •...
Page 153: Changing The Settings
6 F 2 S 0 8 3 5 Status setting Protection setting Binary input setting Binary output setting LED setting Enter a number on the LCD to display each item as described in the previous sections. 4.2.5.1 Relay version To view the relay version, do the following. •...
Page 154 6 F 2 S 0 8 3 5 4.2.6.1 Setting Method There are three setting methods as follows: - To enter a selected number - To enter numerical values - To enter a text string To enter a selected number If a screen as shown below is displayed, perform the setting as follows.
Page 155 6 F 2 S 0 8 3 5 • If it is before pressing the key, press the CANCEL key and enter the new number. ENTER • If it is after pressing the ENTER key, move the cursor to the correcting line by pressing the keys and enter the new number.
Page 156 6 F 2 S 0 8 3 5 ／６Ｐｒｏｔｅｃｔｉｏｎｅｌｅｍｅｎｔ１／＊＊ＤＩＦＩ１（０．５０－１０．００）：１．００＿ＡＤＩＦＩ２（３．０－１２０．０）：２．０ＡＤＩＦＧＩ（０．２５－５．００）：０．５０ＡＤＩＦＩＣ（０．００－５．００）：１．００ＡＶｎ（１００－...
Page 157 6 F 2 S 0 8 3 5 • Set the cursor position in the bracket by selecting " → " or " ← " and pressing the ENTER key. • Move the blinking cursor to select a character. • Press the ENTER to enter the blinking character at the cursor position in the brackets. •...
Page 158 6 F 2 S 0 8 3 5 S e t t i n g I n p u t n e w p a s s w o r d R e t y p e n e w p a s s w o r d •...
Page 159 6 F 2 S 0 8 3 5 • Press 4 (= Setting (change)) on the main "MENU" screen to display the "Setting (change)" screen. • Press 2 (= Description) to display the "Description" screen. D e s c r i p t i o n = D e 1 = P l a n s c r i...
Page 160 6 F 2 S 0 8 3 5 ／３Ａｄｄｒｅｓｓ／Ｐａｒａｍｅｔｅｒ１／１５ＨＤＬＣ（１－３２）：１＿ＩＥＣ（０－２５４）：２ＳＹＡＤＪ（－９９９９－９９９９）：０ｍｓＩＰ１－１（０－２５４）：０ＩＰ１－２（０－２５４）：０...
Page 161 6 F 2 S 0 8 3 5 <IECBR> This line is to select the baud rate when the IEC60870-5-103 system applied. <IECBLK> Select 2 (=Blocked) to block the monitor direction in the IEC60870-5-103 communication. 4.2.6.5 Setting the Recording To set the recording function as described in Section 4.2.3, do the following: •...
Page 162 6 F 2 S 0 8 3 5 Setting the disturbance recording • Press 3 (= Disturbance record) to display the "Disturbance record" screen. D i s t u r b a n r e c 1 = R e c o r &...
Page 163 6 F 2 S 0 8 3 5 S t a t u s 1 = M e t e r i n g 2 = T i m e s y n c h r o n i z a t i o n 3 = T i m e z o n e Setting the metering...
Page 164 6 F 2 S 0 8 3 5 • Press 3 (= Time zone) to display the "Time zone" screen. T i m e z o n e 1 / 1 G M T - 1 2 - + 1 2 ) : h r s •...
Page 165 6 F 2 S 0 8 3 5 L i n e p a r a m e t e r ( G r o u p 1 = L i n e n a m e 2 = V T &...
Page 166 6 F 2 S 0 8 3 5 In case of two-terminal lines, enter the reactive and resistive component of the positive sequence line impedance to the items 1X1 and 1R1 and line length to 1 Line. Press the enter key for each entry.
Page 167 6 F 2 S 0 8 3 5 L i n e Ω 1Xaa ( 0.00 - 199.99) : 34.80 Ω 1Xbb ( 0.00 - 199.99) : 33.40 1Xcc ( 0.00 - 199.99) : 30.90 Ω Ω 1Xab ( 0.00 - 199.99) : 13.60 Ω...
Page 168 6 F 2 S 0 8 3 5 Section 2 and 2.2.2. However "TERM", "CH.CON", "T.SFT2" and "B.SYN2" items are not displayed in the case of 2 terminal models. For the "CH.CON" setting, refer to Sections 2.2.6 and 2.11.3. In "B.SYN ∗ ", set to "On" when synchronizing the sending signal of GRL100 with the external clock signal or the receiving signal from multiplexer.
Page 169 6 F 2 S 0 8 3 5 T r i p ( G r o u p S c h e m e s w i t c h 2 = P r o t e c t i o n e l e m e n t Note: Depending on the scheme switch setting, some of the scheme switches and protection elements are not used and so do not need to be set.
Page 170 6 F 2 S 0 8 3 5 ／６Ｐｒｏｔｅｃｔｉｏｎｅｌｅｍｅｎｔ１／＊＊ＤＩＦＩ１（０．５０－１０．００）：１．００＿ＡＤＩＦＩ２（３．０－１２０．０）：２．０ＡＤＩＦＧＩ（０．２５－５．００）：０．５０ＡＤＩＦＩＣ（０．００－５．００）：１．００ＡＶｎ（１００－...
Page 171 6 F 2 S 0 8 3 5 A u t o r e c l o s e m o d e 1 = D i s a 2 = S P A R 3 = T P S P A &...
Page 172 6 F 2 S 0 8 3 5 • Enter the group number to be copied in line A and press the ENTER key. • Enter the group number to be overwritten by the copy in line B and press the ENTER key. 4.2.6.8 Binary Input The logic level of binary input signals can be inverted by setting before entering the scheme...
Page 173 6 F 2 S 0 8 3 5 Appendix D shows the factory default settings. To configure the binary output signals, do the following: Selection of output module • Press 8 (= Binary output) on the "Setting (change)" screen to display the "Binary output" screen.
Page 174 6 F 2 S 0 8 3 5 I n p u t l o g i c g a t e # 1 ( 0 7 1 ) ： # 2 ( 0 7 1 ) ： # 3 ( 0 7 1 ) ：...
Page 175: Testing
6 F 2 S 0 8 3 5 I n p u t l o g i c g a t e # 1 ( 0 7 1 ) ： # 2 ( 0 7 1 ) ： # 3 ( 0 7 1 ) ：...
Page 176 6 F 2 S 0 8 3 5 The automatic monitor function (A.M.F.) can be disabled by setting the switch [A.M.F] to "OFF". A.M.F. Disabling the A.M.F. prevents tripping from being blocked even in the event of a failure in the items being monitored by this function.
Page 177 6 F 2 S 0 8 3 5 Note : Be sure to restore these switches after the tests are completed or three-terminal normal operation resumes. In normal operation, the switch [A.M.F] is set to "1" (=On) and other switches to "0" (=Off). In other situation, the red "TESTING" LED is lit for alarming. IECTST •...
Page 178 6 F 2 S 0 8 3 5 ( 0 = D i s a b l e 1 = E n a b l e ) 1 / 1 4 I O # B O 1 I O # B O 2 I O # B O 3...
Page 179 6 F 2 S 0 8 3 5 T i m e r P r e s s E N T E R o p e r a t e . P r e s s C A N C E L c a n c e l .
Page 180 6 F 2 S 0 8 3 5 Note: FG signal cannot be observed at monitoring jacks A and B. • Press 5 (= Test) on the top "MENU" screen to display the "Test" screen. T e s t 1 = S w i t h 2 = B i n a r y o u t p u t 4 = L o g i c...
Page 181: Personal Computer Interface
6 F 2 S 0 8 3 5 4.3 Personal Computer Interface The relay can be operated from a personal computer using an RS232C port on the front panel. On the personal computer, the following analysis and display of the fault voltage and current are available in addition to the items available on the LCD screen.
Page 182: Iec 60870-5-103 Interface
6 F 2 S 0 8 3 5 UTP cable (10Base-T) 214B-13-10 100/110/115/120V Other relays HUB. Relay Figure 4.4.2 Relay Setting and Monitoring System (2) 4.5 IEC 60870-5-103 Interface The GRL100 can support the IEC60870-5-103 communication protocol. This protocol is mainly used when the relay communicates with a control system and is used to transfer the following measurand, status data and general command from the relay to the control system.
Page 183: Installation
6 F 2 S 0 8 3 5 5. Installation 5.1 Receipt of Relays When relays are received, carry out the acceptance inspection immediately. In particular, check for damage during transportation, and if any is found, contact the vendor. Check that the following accessories are attached. •...
Page 184: External Connections
6 F 2 S 0 8 3 5 the high reliability and long life for which the equipment has been designed and manufactured. CAUTION • Before removing a module, ensure that you are at the same electrostatic potential as the equipment by touching the case.
Page 185 6 F 2 S 0 8 3 5 Optical interface for telecommunication The optical cables tend to come down, therefore, bending requires special attention. Handling instructions of optical cable are as follows: № Instructions Do not insert the connector obliquely. Tighten the connector when connecting.
Page 186: Commissioning And Maintenance
6 F 2 S 0 8 3 5 6. Commissioning and Maintenance 6.1 Outline of Commissioning Tests The GRL100 is fully numerical and the hardware is continuously monitored. Commissioning tests can be kept to a minimum and need only include hardware tests and conjunctive tests.
Page 187: Cautions
6 F 2 S 0 8 3 5 6.2 Cautions 6.2.1 Safety Precautions CAUTION • The relay rack is provided with a grounding terminal. Before starting the work, always make sure the relay rack is grounded. • When connecting the cable to the back of the relay, firmly fix it to the terminal block and attach the cover provided on top of it.
Page 188: Preparations
6 F 2 S 0 8 3 5 6.3 Preparations Test equipment The following test equipment is required for the commissioning tests. 1 Three-phase voltage source (not required for Model 100s) 2 Single-phase current sources 1 Dynamic three-phase test set (for protection scheme test) 1 DC power supply 3 DC voltmeters 3 AC voltmeters...
Page 189: Hardware Tests
6 F 2 S 0 8 3 5 6.4 Hardware Tests The tests can be performed without external wiring, but DC power supply and AC voltage and current source are required. 6.4.1 User Interfaces This test ensures that the LCD, LEDs and keys function correctly. LCD display •...
Page 190: Binary Input Circuit
6 F 2 S 0 8 3 5 6.4.2 Binary Input Circuit The testing circuit is shown in Figure 6.4.2.1. GRL100 Model 101 -A11 BI15 -B11 TB3 -A14 BI16 -B14 BI17 -A15 BI18 -B15 -A16 power − supply -A17 Figure 6.4.2.1 Testing Binary Input Circuit (Model 101) •...
Page 191: Binary Output Circuit
6 F 2 S 0 8 3 5 6.4.3 Binary Output Circuit This test can be performed by using the "Test" sub-menu and forcibly 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.
Page 192: Ac Input Circuits
6 F 2 S 0 8 3 5 6.4.4 AC Input Circuits This test can be performed by applying known values of voltages and currents to the AC input circuits and verifying that the values applied coincide with the values displayed on the LCD screen.
Page 193: Function Test
6 F 2 S 0 8 3 5 6.5 Function Test CAUTION The function test may cause the output relays to operate including the tripping output relays. Therefore, the test must be performed with tripping circuits disconnected. 6.5.1 Measuring Element Measuring element characteristics are realized by software, so it is possible to verify the overall characteristics by checking representative points.
Page 194 6 F 2 S 0 8 3 5 6.5.1.1 Phase current differential element DIF The phase current differential element is checked for the following items. Operating current value Charging current compensation (excluding Model 100s) Percentage restraining characteristic The top two items are tested locally or under an end-to-end setup of each terminal relay. The last item is tested only under an end-to-end setup of each terminal relay.
Page 195 6 F 2 S 0 8 3 5 • Set the [L.test] to “1” (= On) on the “Switch” screen of the “Test” sub-menu. • Check that the charging current compensation DIFIC is set to zero on the "Protection element" screen in the "Setting (view)" sub-menu. If not, set it to zero in the "Setting (change)"...
Page 196 6 F 2 S 0 8 3 5 • Set the [L.test] to “1” (= On) on the “Switch” screen of the “Test” sub-menu. When the charging current compensation is in operation, the differential current I d is expressed with the following equation: I d = I –...
Page 197 6 F 2 S 0 8 3 5 Relay A: GRL100 Single-phase current source − (**) φ -A16 -A17 Monitoring jack Relay C: GRL100 -A16 -A17 Monitoring jack Relay B: GRL100 Single-phase current source − -A16 power -A17 supply Monitoring jack voltmeter Note: In case of two-terminal applications (The relay C is not used.),...
Page 198 6 F 2 S 0 8 3 5 <Testing on site> If the relays are tested at each installation site, the end-to-end test is performed after the telecommunication circuit between terminals is setup. Figure 6.5.1.3 (b) shows the testing circuit of the on-site end-to-end test.
Page 199 6 F 2 S 0 8 3 5 GRL100 Single-phase current source − φ Monitoring jack -A16 power supply − -A17 PULSE Reference Oscillo- voltage source scope − Telecomm. Circuit voltmeter GRL100 Single-phase current source − φ Monitoring jack -A16 power supply −...
Page 200 6 F 2 S 0 8 3 5 screen. • Enter a signal number 270 for Term B to observe a signal PULSE at monitoring jack B, and then press the ENTER key. The phase of the test current is adjusted as follows. •...
Page 201 6 F 2 S 0 8 3 5 Characteristic B is expressed by the following equation, I out ≤ DIFI2 where, DIFI1 and DIFI2 are setting values. • Set the charging current compensation DIFIC to zero. • Press 4 (= Logic circuit) on the "Test" sub-menu screen to display the "Logic circuit" screen. •...
Page 202 6 F 2 S 0 8 3 5 6.5.1.3 Overcurrent elements OC, EF, OC1 and inverse definite minimum time (IDMT) overcurrent elements OCI, EFI (1) Overcurrent elements OC, EF, OC1 The testing circuit is shown in Figure 6.5.1.6 (a). GRL100 Single-phase current source...
Page 203 6 F 2 S 0 8 3 5 (2) Inverse definite minimum time (IDMT) overcurrent elements OCI, EFI The testing circuit is shown in Figure 6.5.1.6 (b). GRL100 Single-phase current source Monitoring jack -A16 power − -A17 supply Start Time counter Stop Figure 6.5.1.6 (b) Testing OCI and EFI...
Page 204 6 F 2 S 0 8 3 5 6.5.1.4 Thermal overload element THM-A and THM-T The testing circuit is same as the circuit shown in Figure 6.5.1.6 (b). The output signal of testing element is assigned to the monitoring jack A. The output signal numbers of the elements are as follows: Element Signal No.
Page 205 6 F 2 S 0 8 3 5 GRL100 Single-phase voltage source φ -A16 -A17 Monitoring jack GRL100 Single-phase voltage source -A16 power − supply -A17 Monitoring jack voltmeter Figure 6.5.1.7 (a) Laboratory Setup for Testing Out-of-step Element ⎯ 204 ⎯...
Page 206 6 F 2 S 0 8 3 5 GRL100 Single-phase voltage source − φ Monitoring jack -A16 power supply − -A17 Reference Oscillo- voltage source scope − Telecomm. Circuit voltmeter GRL100 Single-phase voltage source − φ Monitoring jack -A16 power supply −...
Page 207 6 F 2 S 0 8 3 5 The output signal numbers of the OST element are as follows. Element Signal number Remarks OST1 Two-terminal and three-terminal application OST2 Three-terminal application • Press 4 (= Logic circuit) on the "Test" sub-menu screen to display the "Logic circuit" screen. •...
Page 208 6 F 2 S 0 8 3 5 OVL2, UVL2 and SYN2 are used for two-breaker autoreclose and provided in model 300s and 500s. Element Signal number OVL1 UVL1 OVL2 UVL2 SYN1 SYN2 Connect the phase angle meter to the three-phase voltages taking the scheme switch "VT-RATE" and VTPH-SEL settings into consideration.
Page 209 6 F 2 S 0 8 3 5 the value at which the element operates. Check that the measured value is within ± 5% of the setting. Synchronism check element SYN1 • Press 4 (= Logic circuit) on the "Test" screen to display the "Logic circuit" screen. •...
Page 210: Timer
6 F 2 S 0 8 3 5 6.5.1.7 Overcurrent element OCBF The overcurrent element is tested locally. The test circuit is shown in Figure 6.5.1.6(a). The output signal number of the OCBF element is as follows. Element Signal number OCBF-A •...
Page 211 6 F 2 S 0 8 3 5 GRL100 TB4 -A16 power − supply -A17 Monitoring jack Start Time Stop counter Figure 6.5.2.1 Testing Variable Timer • Press 3 (= Timer) on the "Test" screen to display the "Timer" screen. •...
Page 212: Protection Scheme
6 F 2 S 0 8 3 5 6.5.3 Protection Scheme Protection schemes implemented in GRL100 are basically for unit protection. It is recommended that the protection schemes are tested under end-to-end mode. The setup of the end-to-end synchronized test is described in Section 6.5.1. In the protection scheme tests, a dynamic test set with the three-phase voltage source and current source is required to simulate power system pre-fault, fault and post-fault conditions.
Page 213: Metering And Recording
6 F 2 S 0 8 3 5 6.5.4 Metering and Recording The metering function can be checked whilst testing the AC input circuit. See Section 6.4.4. Fault recording can be checked whilst testing the protection schemes. Open the "Fault records" screen and check that the descriptions are correct for the applied fault.
Page 214: Conjunctive Tests
6 F 2 S 0 8 3 5 6.6 Conjunctive Tests 6.6.1 On Load Test With the relay connected to the line which is carrying load current, it is possible to check the polarity of the voltage and current transformers and the phase rotation with the metering displays on the LCD screen.
Page 215 6 F 2 S 0 8 3 5 • Enter 1 to select the IO#1 module, then the LCD displays the screen shown below. ( 0 = D i s a b l e 1 = E n a b l e ) I O # T P - A 1 I O #...
Page 216 6 F 2 S 0 8 3 5 ( 0 = D i s a b l e 1 = E n a b l e ) 1 / 1 4 I O # B O 1 I O # B O 2 I O # B O 3...
Page 217: Maintenance
6 F 2 S 0 8 3 5 6.7 Maintenance 6.7.1 Regular Testing The relay is almost completely self-supervised. The circuits which cannot be supervised are binary input and output circuits and human interfaces. Therefore regular testing can be minimized to checking the unsupervised circuits. The test procedures are the same as described in Sections 6.4.1, 6.4.2 and 6.4.3.
Page 218 6 F 2 S 0 8 3 5 Table 6.7.2.1 LCD Message and Failure Location Message Failure location IO3, Channel Discon- (GCOM) IO5, nector cable IO8(*) × Checksum err ROM-RAM err × SRAM err × BU-RAM err × DPRAM err ×...
Page 219: Replacing Failed Modules
6 F 2 S 0 8 3 5 If no message is shown on the LCD, it means that the failure location is either in the DC power supply circuit or in the microprocessors mounted on the SPM module. In this case, check the "ALARM"...
Page 220 6 F 2 S 0 8 3 5 The software name is indicated on the memory device on the module with six letters such as GS1LM1, GS1LC1, GS1ZF1, etc. CAUTION When handling a module, take anti-static measures such as wearing an earthed wrist band and placing modules on an earthed conductive mat.
Page 221 6 F 2 S 0 8 3 5 • Open the left-side front panel (blind panel) (*) by unscrewing the two binding screws located on the right side of the panel. (*) This panel is attached only to models assembled in the type B case. •...
Page 222 6 F 2 S 0 8 3 5 7. Putting Relay into Service The following procedure must be adhered to when putting the relay into service after finishing commissioning or maintenance tests. • Check that all external connections are correct. •...
Page 223 6 F 2 S 0 8 3 5 ⎯ 222 ⎯...
Page 224 6 F 2 S 0 8 3 5 Appendix A Block Diagram Note: These show simplified block diagrams including each protection function. For details of each protection function, refer to Chapter 2. ⎯ 223 ⎯...
Page 225 6 F 2 S 0 8 3 5 Trip A Trip B Trip C & ≧1 ≧1 CB Trip & ≧1 Command ≧1 & ≧1 ≧1 + (ON) 0.06s Fault Detection(FD) unit DIFG TDIFG - (OFF) & DIFG & 0.10 - 10.00s ≧1 &...
Page 226 6 F 2 S 0 8 3 5 Trip A Trip B Trip C & ≧1 ≧1 Bus CB Trip & ≧1 ≧1 Command & ≧1 ≧1 +(ON) 0.06s ≧1 DIFG Center CB Trip TDIFG -(OFF) Command & DIFG & ≧1 0.10 - 10.00s ≧1...
Page 227 6 F 2 S 0 8 3 5 Trip A Trip B Trip C & ≧1 ≧1 Bus CB Trip & ≧1 ≧1 Command +(ON) & ≧1 DIFG ≧1 -(OFF) & DIFG 0.06s TDIFG ≧1 Center CB Trip & Command Remote Terminal ≧1 0.10 - 10.00s...
Page 228 6 F 2 S 0 8 3 5 Appendix B Signal List ⎯ 227 ⎯...
Page 229 6 F 2 S 0 8 3 5 Signal list Signal Name Contents Protection CONSTANT 0 constant 0 relay CONSTANT 1 constant 1 output 43CX Diff.protection enable condition 15 43BUX Backup protection enable condition 38 ARC_COM.ON Autorecloser active (for IEC103) 39 TELE.COM.ON Teleprotection active (for IEC103) 40 PROT.COM.ON...
Page 230 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 81 52AND CB1 contact AND logic 82 DIF-A TRIP DIF trip signal A 83 DIF-B TRIP DIF trip signal B 84 DIF-C_TRIP DIF trip signal C 85 TDIFG TDIFG timer output 86 DIFG TRIP DIFG trip signal...
Page 231 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 161 TDBL1 TDBL1 timer output 162 TLBD1 TLBD1 timer output 163 TSYN1 TSYN1 timer output 164 TDBL2 TDBL2 timer output 165 TLBD2 TLBD2 timer output 166 TSYN2 TSYN2 timer output 167 REC-READY1 ARC ready signal in leader CB autoreclose...
Page 232 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 251 CHECKING During automatic checking 252 CHK FAIL-Q Fail-to-operate of tripping output circuit 253 CHK STEP1 Checking step1 254 CHK_STEP2 Checking step2 255 CHK_STEP3 Checking step3 256 OC/OCI_TRIP OC/OCI trip 257 EF/EFI TRIP EF/EFI trip...
Page 233 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 321 UVGF-A UVGF-A element output 322 UVGF-B UVGF-B element output 323 UVGF-C UVGF-C element output 325 UVDF-A UVDF-A element output 326 UVDF-B UVDF-B element output 327 UVDF-C UVDF-C element output 333 TMPR1 Dead time count up signal in leader CB MPAR...
Page 234: Dif.fs-A_Tp
6 F 2 S 0 8 3 5 Signal list Signal Name Contents 401 DIF.FS-A TRIP DIF-A trip with FS 402 DIF.FS-B_TRIP DIF-B trip with FS 403 DIF.FS-C_TRIP DIF-C trip with FS 404 DIFG.FS_TRIP DIFG trip with FS 405 DIF_TRIP DIF trip signal 408 DIFFS_OP Fail safe for DIF trip...
Page 235 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 481 ARCMD SPAR ditto (SPAR) 482 ARCMD_TPAR ditto (MPAR) 483 ARCMD S&T ditto (SPAR & TPAR) 484 ARCMD_MAPR2 ditto (MPAR2) 485 ARCMD MPAR3 ditto (MPAR3) 486 ARCMD EXT1P ditto (EXT1P) 487 ARCMD EXT3P...
Page 236 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 950 MODE0 Changed to MODE0 951 MODE1 Changed to MODE1 952 MODE2A-GPS Changed to MODE2A due to GPS failure 953 MODE2A-Td Changed to MODE2A due to abnormal telecomm. delay time 954 MODE2A-CF Changed to MODE2A due to telecomm.
Page 237 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 961 V.COM2-R1 ditto 962 V.COM3-R1 ditto 964 S.V.COM1-R1 Comm. data(V0 data frame) receive signal from term-1 965 S.V.COM2-R1 ditto 966 S.V.COM3-R1 ditto 967 S.V.COM4-R1 ditto 968 S.V.COM5-R1 ditto 969 S.V.COM6-R1 ditto...
Page 238 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1041 FAULT PHA B fault phase B 1042 FAULT PHA C fault phase C 1043 FAULT PHA N fault phase N 1044 FL ERR fault location start up error 1045 FL OB FWD fault location out of bounds(forward) 1046 FL OB BACK...
Page 239 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1121 SUB2 COM10-R1 ditto 1122 SUB2 COM11-R1 ditto 1123 SUB2 COM12-R1 ditto 1124 1125 1126 1127 1128 COM1-R2 Comm. data receive signal from remote term-2 1129 COM2-R2 ditto 1130 COM3-R2 ditto...
Page 240 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1201 1202 1203 1204 1205 1206 1207 1208 1209 1210 1211 1212 1213 1214 1215 1216 1217 1218 1219 1220 1221 1222 1223 1224 1225 1226 1227 1228 1229 1230...
Page 241 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1281 1282 1283 1284 BI1 COM UF Binary input signal BI1 (unfiltered) 1285 BI2 COM UF Binary input signal BI2 (unfiltered) 1286 BI3 COM UF Binary input signal BI3 (unfiltered) 1287 BI4 COM UF Binary input signal BI4 (unfiltered) 1288 BI5 COM UF...
Page 242 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1361 1362 1363 1364 1365 1366 1367 1368 1369 1370 1371 1372 1373 1374 1375 1376 1377 1378 1379 1380 1381 1382 1383 1384 1385 1386 1387 1388 1389 1390...
Page 243 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1441 1442 1443 1444 1445 PLC data CHG PLC data change 1446 1447 1448 Sys.set change System setting change 1449 Rly.set change Relay setting change 1450 Grp.set change Group setting change 1451 1452...
Page 244 6 F 2 S 0 8 3 5 Signal list Signal Name Contents Input for 1536 CB1 CONT-A CB1 contact (A-phase) protection 1537 CB1 CONT-B (B-phase) 1538 CB1 CONT-C (C-phase) 1539 CB2 CONT-A CB2 contact (A-phase) 1540 CB2 CONT-B (B-phase) 1541 CB2 CONT-C (C-phase) 1542 DS N/O CONT...
Page 245 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1616 DIF-A FS Fail safe command for DIF-A trip 1617 DIF-B FS Fail safe command for DIF-B trip 1618 DIF-C_FS Fail safe command for DIF-C trip 1619 DIFG FS Fail safe command for DIFG trip 1620 TP-A DELAY Trip command off-delay timer setting...
Page 246 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1696 DIF-A-R2 DIF-A relay operating command from remote term-2 for TFC 1697 DIF-B-R2 DIF-B relay operating command from remote term-2 for TFC 1698 DIF-C-R2 DIF-C relay operating command from remote term-2 for TFC 1699 DIFG-R2 DIFG relay operating command from remote term-2 for TFC 1700...
Page 247 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 1776 1777 1778 1779 1780 1781 1782 1783 1784 1785 1786 1787 1788 1789 1790 1791 1792 IO#1-TP-A1 Binary output signal of TP-A1 1793 IO#1-TP-B1 TP-B1 1794 IO#1-TP-C1 TP-C1 1795 IO#1-TP-A2 Binary output signal of TP-A2...
Page 248 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 2016 2017 2018 2019 2020 2021 2022 2023 2024 2025 2026 2027 2028 2029 2030 2031 2032 2033 2034 2035 2036 2037 2038 2039 2040 2041 2042 2043 2044 2045...
Page 249 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 2096 V.COM1-S Communiation on/off data(V0 data frame) send command 2097 V.COM2-S ditto 2098 V.COM3-S ditto 2099 2100 S.V.COM1-S Communiation on/off data(V0 data frame) send command 2101 S.V.COM2-S ditto 2102 S.V.COM3-S ditto...
Page 250 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 2576 2577 2578 2579 2580 2581 2582 2583 2584 2585 2586 2587 2588 2589 2590 2591 2592 2593 2594 2595 2596 2597 2598 2599 2600 2601 2602 2603 2604 2605...
Page 251 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 2656 CON_TPMD1 User configrable trip mode in fault record 2657 CON_TPMD2 ditto 2658 CON_TPMD3 ditto 2659 CON_TPMD4 ditto 2660 CON_TPMD5 ditto 2661 CON_TPMD6 ditto 2662 CON_TPMD7 ditto 2663 CON_TPMD8 ditto 2664...
Page 252 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 2816 TEMP001 2817 TEMP002 2818 TEMP003 2819 TEMP004 2820 TEMP005 2821 TEMP006 2822 TEMP007 2823 TEMP008 2824 TEMP009 2825 TEMP010 2826 TEMP011 2827 TEMP012 2828 TEMP013 2829 TEMP014 2830 TEMP015 2831 TEMP016 2832 TEMP017...
Page 253 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 2896 TEMP081 2897 TEMP082 2898 TEMP083 2899 TEMP084 2900 TEMP085 2901 TEMP086 2902 TEMP087 2903 TEMP088 2904 TEMP089 2905 TEMP090 2906 TEMP091 2907 TEMP092 2908 TEMP093 2909 TEMP094 2910 TEMP095 2911 TEMP096 2912 TEMP097...
Page 254 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 2976 TEMP161 2977 TEMP162 2978 TEMP163 2979 TEMP164 2980 TEMP165 2981 TEMP166 2982 TEMP167 2983 TEMP168 2984 TEMP169 2985 TEMP170 2986 TEMP171 2987 TEMP172 2988 TEMP173 2989 TEMP174 2990 TEMP175 2991 TEMP176 2992 TEMP177...
Page 255 6 F 2 S 0 8 3 5 Signal list Signal Name Contents 3056 TEMP241 3057 TEMP242 3058 TEMP243 3059 TEMP244 3060 TEMP245 3061 TEMP246 3062 TEMP247 3063 TEMP248 3064 TEMP249 3065 TEMP250 3066 TEMP251 3067 TEMP252 3068 TEMP253 3069 TEMP254 3070 TEMP255 3071 TEMP256 ⎯...
Page 256 6 F 2 S 0 8 3 5 Appendix C Variable Timer List ⎯ 255 ⎯...
Page 257 6 F 2 S 0 8 3 5 Variable Timer List Timer Timer No. Contents TDIFG DIFG delayed trip TBF1A BF retrip (phase A) TBF1B BF retrip (phase B) TBF1C BF retrip (phase C) TBF2A BF trip (phase A) TBF2B BF trip (phase B) TBF2C BF trip (phase C)
Page 258 6 F 2 S 0 8 3 5 Appendix D Binary Output Default Setting List ⎯ 257 ⎯...
Page 259 6 F 2 S 0 8 3 5 Binary Output Default Setting List (1) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: GRL100 IO#2 A2-A1 TRIP-A1 Trip A phase -101 A2-B1 TRIP-B1...
Page 260 6 F 2 S 0 8 3 5 Binary Output Default Setting List (2) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: GRL100 IO#2 A2-A1 TRIP-A1 Trip A phase -102 A2-B1 TRIP-B1...
Page 261 6 F 2 S 0 8 3 5 Binary Output Default Setting List (3) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: IO#2 A2-A1 TRIP-A1 Trip A phase GRL100 A2-B1 TRIP-B1...
Page 262 6 F 2 S 0 8 3 5 Binary Output Default Setting List (4) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: IO#2 A2-A1 TRIP-A1 Trip A phase GRL100 A2-B1 TRIP-B1...
Page 263 6 F 2 S 0 8 3 5 Binary Output Default Setting List (5) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: IO#2 A2-A1 TRIP-A1 Trip A phase GRL100 A2-B1 TRIP-B1...
Page 264 6 F 2 S 0 8 3 5 Binary Output Default Setting List (6) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: IO#2 A2-A1 TRIP-A1 Trip A phase GRL100 A2-B1 TRIP-B1...
Page 265 6 F 2 S 0 8 3 5 Binary Output Default Setting List (7) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: IO#2 A2-A1 TRIP-A1/A2 Trip A phase 99, 102 GRL100 A2-B1...
Page 266 6 F 2 S 0 8 3 5 Binary Output Default Setting List (8) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB3: IO#2 A2-A1 TRIP-A1/A2 Trip A phase 99, 102 GRL100 A2-B1...
Page 267 6 F 2 S 0 8 3 5 Binary Output Default Setting List (9) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB2: GRL100 IO#2 A2-A1 TRIP-A1 Trip A phase -401 A2-B1 TRIP-B1...
Page 268 6 F 2 S 0 8 3 5 Binary Output Default Setting List (10) Relay Model Module BO No. Terminal No. Signal Name Contents Setting Name Signal No. LOGIC TIMER (OR:1, AND:2) (OFF:0, ON:1) TB2: GRL100 IO#2 A2-A1 TRIP-A1/A2 Trip A phase 99, 102 -501 A2-B1...
Page 269 6 F 2 S 0 8 3 5 ⎯ 268 ⎯...
Page 270 6 F 2 S 0 8 3 5 Appendix E Details of Relay Menu ⎯ 269 ⎯...
Page 271 6 F 2 S 0 8 3 5 MENU 1=Record 2=Status 3=Setting(view) 4=Setting(change) 5=Test /1 Record 1=Fault record 2=Event record 3=Disturbance record 4=Autoreclose count /2 Fault record /3 Fault record /4 Fault record #2 3/33 1=Display 2=Clear #1 16/Oct/1998 23:18:03.913 16/Oct/1998 23:18:03.913 #2 12/Feb/1998 03:51:37.622 Phase BC...
Page 272 6 F 2 S 0 8 3 5 /1 Status /2 Metering 12/Feb/1998 22:56 3/13 1=Metering 2=Binary I/O Va ***.*kV ***.* Ia **.**kA ***.* 3=Relay element 4=Time sync source Vb ***.*kV ***.* Ib **.**kA ***.* 5=Clock adjustment 6=Terminal condition Vc ***.*kV ***.* Ic **.**kA ***.* /2 Binary input &...
Page 273 6 F 2 S 0 8 3 5 /2 Status /3 Metering 3/ 3 1=Metering Display value 1=Primary 2=Secondary 1 2=Time Synchronization Power (P/Q) 1=Send 2=Receive 3=Time zone Current 1=Lag 2=Lead /3 Time synchronization 1/ 1 Sync 0=Off 1=IRIG 2=RSM 3=IEC 4=GPS 1 /3 Time zone 1/ 1 /2 Protection...
Page 274 6 F 2 S 0 8 3 5 /2 Binary input 3/ 31 BISW 1 1=Norm 2=Inv BISW 2 1=Norm 2=Inv BISW 3 1=Norm 2=Inv /2 Binary output /3 Binary output (IO#2)3/12 1=IO#2 2=IO#3 3=IO#4 BO1 ( 1, 2, 3, 4, 5, 6) AND,D BO2 ( 1, 2, 3, 4, 5, 6) OR, BO3 ( 1, 2, 3, 4, 5, 6) OR,D /3 Binary output...
Page 275 6 F 2 S 0 8 3 5 /2 Status /3 Metering 1/ 3 1=Metering Display value 1=Primary 2=Secondary 1_ 2=Time Synchronization Power (P/Q) 1=Send 2=Receive 3=Time zone Current 1=Lag 2=Lead /3 Time synchronization 1/ 1 Sync 0=Off 1=IRIG 2=RSM 3=IEC 4=GPS 1 _ /3 Time zone 1/ 1 GMT (...
Page 276 6 F 2 S 0 8 3 5 /5 Autoreclose (Group 1) /6 Autoreclose mode 1=Autoreclose mode 1=Disable 2=SPAR 3=TPAR 4=SPAR&TPAR 2=Scheme switch 5=MPAR2 6=MPAR3 7=EXT1P 8=EXT3P 3=Autoreclose element Current No.= 4 Select No.= _ /6 Scheme switch 1/ 8 ARC-CB 1=00 2=01 3=03 4=L1 5=L2 1 _ ARC-EXT 0=Off 1=On...
Page 277 6 F 2 S 0 8 3 5 1/ ∗∗ /1 Test /2 Switch 1=Switch 2=Binary output A.M.F. 0=Off 1=On 3=Timer 4=Logic circuit L.test 0=Off 1=On 5=Sim. Fault 6=Init. 2B Open1 0=Off 1=On /2 Binary output 1=IO#1 2=IO#2 3=IO#3 4=IO#4 Press number to start test /3 BO (0=Disable 1=Enable) 1/ 6...
Page 278 6 F 2 S 0 8 3 5 LCD AND BUTTON OPERATION INSTRUCTION MANUAL MODE 1. PRESS ARROW KEY TO MOVE TO EACH DISPLAYED ITEMS NORMAL 2. PRESS "END" KEY TO BACK TO PREVIOUS SCREEN (DISPLAY OFF) 1=RECORD PRESS BUTTON MENU EXCEPT FOR 1=FAULT RECORD...
Page 279 6 F 2 S 0 8 3 5 ⎯ 278 ⎯...
Page 280 6 F 2 S 0 8 3 5 Appendix F Case Outline • Case Type-A: Flush Mount Type • Case Type-B: Flush Mount Type • Case Type-A, B: Rack Mount Type ⎯ 279 ⎯...
Page 281 6 F 2 S 0 8 3 5 276.2 Front View Side View 4-φ5.5 190.5 34.75 235.4 Optical interface Panel Cut-out TB3/TB4 TB2 A1 B1 A1 B1 TB2-TB4: M3.5 Ring terminal (∗) (∗) TB1: M3.5 Ring A10 B10 terminal (∗): Provided with GRL100-∗1∗∗-∗9-∗∗ A18 B18 Electrical interface Rear View...
Page 282 6 F 2 S 0 8 3 5 276.2 Front View Side View 4-φ5.5 190.5 34.75 345.4 Optical interface Panel Cut-out TB2 - TB5 A1 B1 TB2-TB5: M3.5 Ring terminal TB1: M3.5 Ring terminal Electrical interface Rear View A18 B18 Terminal Block Case Type-B: Flush Mount Type for Models 202, 206, 212, 216, 302, 312, 401, 411, 501, 511, 503 and 513...
Page 283 6 F 2 S 0 8 3 5 Top View Attachment kit (top bar) Attachment kit Attachment kit (large bracket) (small bracket) 4 HOLES - 6.8x10.3 LINE DIFFERENTIAL PROTECTION GRL100 201A-11-10-30 100/110/115/120V 465.1 483.0 Front View Rack Mount Type: Case Type-A ⎯...
Page 284 6 F 2 S 0 8 3 5 Attachment kit (top bar) Attachment kit Attachment kit (large bracket) (small bracket) Top View 4 HOLES - 6.8x10.3 LINE DIFFERENTIAL PROTECTION GRL100 202A-11-10-30 100/110/115/120V 110/125Vdc 465.1 483.0 Front View Rack Mount: Case Type-B ⎯...
Page 285 6 F 2 S 0 8 3 5 247.8 19.4 18.8 (a) Large Bracket (b) Small Bracket (c) Bar for Top and Bottom of Relay Parts 1 Large bracket, 5 Round head screws with spring washers and washers (M4x10) 1 Small bracket, 3 Countersunk head screws (M4x6) 2 Bars, 4 Countersunk head screws (M3x8) Dimensions of Attachment Kit EP-101 ⎯...
Page 286 6 F 2 S 0 8 3 5 19.4 137.8 18.8 (a) Large Bracket (b) Small Bracket (c) Bar for Top and Bottom of Relay Parts 1 Large bracket, 5 Round head screws with spring washers and washers (M4x10) 1 Small bracket, 3 Countersunk head screws (M4x6) 2 Bars, 4 Countersunk head screws (M3x8) Dimensions of Attachment Kit EP-102 ⎯...
Page 287 6 F 2 S 0 8 3 5 How to Mount Attachment Kit for Rack-Mounting Caution: Be careful that the relay modules or terminal blocks, etc., are not damage while mounting. Tighten screws to the specified torque according to the size of screw. Step 1.
Page 288 6 F 2 S 0 8 3 5 Appendix G Typical External Connection ⎯ 287 ⎯...
Page 289 6 F 2 S 0 8 3 5 TB3- A2 TB1 -1 BO 1 BO 1 BO 2 BO 2 BO 3 BO 3 (∗1) (CASE EARTH) BUSBAR [Default setting] 52A (A-ph.) TB4-A4 CB1 contacts 52B (B-ph.) (Closed when bus CB main contact closed.) 52C (C-ph.) BO 10...
Page 290 6 F 2 S 0 8 3 5 TB1 -1 TB3- A2 TB2-A1 (∗1) (CASE EARTH) [Default setting] 52A (A-ph.) TB4-A4 CB1 contacts 52B (B-ph.) (Closed when bus CB main contact closed.) 52C (C-ph.) BO10 52A (A-ph.) CB2 contacts 52B (B-ph.) (Closed when center CB main BO11 contact closed.)
Page 291 6 F 2 S 0 8 3 5 BUS VT TB3- A2 TB1 -1 TB2-A1 BUS VT (∗1) IO#3 (CASE EARTH) [Default setting] 52A (A-ph.) TB4-A4 CB1 contacts 52B (B-ph.) (Closed when CB main contact closed.) 52C (C-ph.) BO10 BO11 Disconnector N/O contact (HIGH SPEED TB3-A18...
Page 292 6 F 2 S 0 8 3 5 TB3- A2 TB2- A2 TB5-A1 BUS VT TB1 -1 BUS VT (∗1) (CASE EARTH) [Default setting] BO10 BO10 52A (A-ph.) TB4-A4 CB1 contacts 52B (B-ph.) (Closed when CB main 52C (C-ph.) BO11 contact closed.) BO11 BO10...
Page 293 6 F 2 S 0 8 3 5 TB3- A2 TB2-A1 BUS VT TB1 -1 BUS VT IO#3 (∗1) (CASE EARTH) BO10 TB4-B4 BO11 Programmable BI (HIGH SPEED BO12 RELAY) IO#1 (HIGH SPEED BO13 RELAY) FAIL TB3-A18 For IEC103 RELAY COM2-A FAILURE COM2-B...
Page 294 6 F 2 S 0 8 3 5 TB3- A2 TB2- A2 TB5-A1 BUS VT TB1 -1 BUS VT (∗1) (CASE EARTH) BO10 BO10 BO11 BO11 TB4-B4 BO10 (HIGH SPEED BO12 BO12 RELAY) IO#3 (HIGH SPEED IO#1 BO13 BO13 RELAY) FAIL RELAY BO14...
Page 295 6 F 2 S 0 8 3 5 TB3- A2 TB2-A1 BUS VT TB1 -1 BUS VT PARALLEL LINE VT IO#3 (∗1) (CASE EARTH) [Default Setting] 52A (A-ph.) TB4-A4 BO10 CB1 contacts 52B (B-ph.) (Closed when bus CB main contact closed.) 52C (C-ph.) BO11 52A (A-ph.)
Page 296 6 F 2 S 0 8 3 5 TB3- A2 TB2- A2 TB5-A1 BUS VT TB1 -1 BUS VT PARALLEL LINE VT (∗1) (CASE EARTH) BO10 BO10 [Default setting] 52A (A-ph.) TB4-A4 CB1 contacts BO11 BO11 52B (B-ph.) (Closed when CB main BO10 52C (C-ph.) contact closed.)
Page 297 6 F 2 S 0 8 3 5 TB2- A2 TB5-A1 TB3-A1 BUS VT TB1 -1 BUS VT (∗1) (CASE EARTH) [Default setting] BO10 52A (A-ph.) TB4-A4 CB1 contacts 52B (B- ph.) (Closed when CB main 52C (C-ph.) contact closed.) BO11 BO10 (HIGH SPEED...
Page 298 6 F 2 S 0 8 3 5 TB2- A2 TB5-A1 TB3-A1 BUS VT TB1 -1 BUS VT PARALLEL LINE VT ( ∗ 1) (CASE EARTH) BO10 [Default setting] 52A (A-ph.) TB4-A4 CB1 contacts BO11 52B (B-ph.) (Closed when CB main 52C (C-ph.) contact closed.) BO10...
Page 299 6 F 2 S 0 8 3 5 TB2- A2 TB5-A1 TB3-A1 BUS VT TB1 -1 BO10 BUS VT PARALLEL LINE VT BO11 ( ∗ 1) (CASE EARTH) BO10 (HIGH SPEED BO12 RELAY) [Default setting] 52A (A-ph.) TB4-A4 IO#3 (HIGH SPEED BO13 CB1 contacts RELAY)
Page 300 6 F 2 S 0 8 3 5 Appendix H Relay Setting Sheet • Relay Identification • Transmission line parameters • Protection • Autoreclose scheme • Contacts setting • Contacts setting (continued) • Relay and Protection Scheme Setting Sheets ⎯ 299 ⎯...
Page 301 6 F 2 S 0 8 3 5 Relay Setting Sheets 1. Relay Identification Date: Relay type Serial Number Frequency CT rating VT rating dc supply voltage Password Active setting group 2. Transmission line parameters Line type Line length Line impedance Z1 = Z0 = Z0 (mutual) =...
Page 302 6 F 2 S 0 8 3 5 5. Contacts setting (1) IO#2 BO1 BO10 BO11 BO12 BO13 (2) IO#3 BO1 BO10 BO11 BO12 BO13 BO14 (3) IO#4 BO1 BO10 BO11 BO12 BO13 BO14 (Memo: For relay elements and scheme logic settings, the setting list as shown on the next page is made.) ⎯...
Page 303 6 F 2 S 0 8 3 5 Relay and Protection Scheme Setting Sheet Default Setting of Relay Series(5A rating / 1A rating) № Name Range Units Contents NO-ARC,NO-FD 1CB-ARC,NO-FD 2CB-ARC,NO-FD 1CB-ARC,FD 2CB-ARC,FD 1CB-ARC,NO-FD User 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM...
Page 304 6 F 2 S 0 8 3 5 Relay and Protection Scheme Setting Sheet Default Setting of Relay Series(5A rating / 1A rating) № Name Range Units Contents NO-ARC,NO-FD 1CB-ARC,NO-FD 2CB-ARC,NO-FD 1CB-ARC,FD 2CB-ARC,FD 1CB-ARC,NO-FD User 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM...
Page 305 6 F 2 S 0 8 3 5 Relay and Protection Scheme Setting Sheet Default Setting of Relay Series(5A rating / 1A rating) № Name Range Units Contents NO-ARC,NO-FD 1CB-ARC,NO-FD 2CB-ARC,NO-FD 1CB-ARC,FD 2CB-ARC,FD 1CB-ARC,NO-FD User 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM...
Page 306 6 F 2 S 0 8 3 5 Relay and Protection Scheme Setting Sheet Default Setting of Relay Series(5A rating / 1A rating) № Name Range Units Contents NO-ARC,NO-FD 1CB-ARC,NO-FD 2CB-ARC,NO-FD 1CB-ARC,FD 2CB-ARC,FD 1CB-ARC,NO-FD User 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM...
Page 307 6 F 2 S 0 8 3 5 Relay and Protection Scheme Setting Sheet Default Setting of Relay Series(5A rating / 1A rating) № Name Range Units Contents NO-ARC,NO-FD 1CB-ARC,NO-FD 2CB-ARC,NO-FD 1CB-ARC,FD 2CB-ARC,FD 1CB-ARC,NO-FD User 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM 2TERM 3TERM...
Page 308 6 F 2 S 0 8 3 5 Event record Name Range Unit Contents Signal No. Signal name Type 0 - 3071 － Event record signal 1536 CB1 A On/Off － 0 - 3071 ditto 1537 CB1 B On/Off 0 - 3071 －...
Page 309 6 F 2 S 0 8 3 5 Event record Name Range Unit Contents Signal No. Signal name Type － EV65 0 - 3071 ditto － EV66 0 - 3071 ditto EV67 0 - 3071 － ditto － EV68 0 - 3071 ditto EV69 0 - 3071...
Page 310 6 F 2 S 0 8 3 5 Disturbance record Default Name Range Unit Contents Signal No. Signal name 100 200 300 400 500 － disturbance record triger SIG1 0 - 3071 CB1_TRIP-A － ditto SIG2 0 - 3071 CB1_TRIP-B －...
Page 311 6 F 2 S 0 8 3 5 PLC Default Setting: GRL100-B1-04 Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 312: Diffs_Op
6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 313 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 314 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic expression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x1, 1x2, 2x1, 2x2, 3x1, 3x2, 4x1, № Signal Turn Model 204, 206, 214, 216 None Back Release...
Page 315 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 316 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 317 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 318 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 319 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 320 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 321 6 F 2 S 0 8 3 5 PLC Default Setting Output Timing Logic ex pression Delay Time / Flip Flop Cycle Flip Flop Timer Model 1x 1, 1x 2, 2x 1, 2x 2, 3x 1, 3x 2, 4x 1, 5x 1, №...
Page 322 6 F 2 S 0 8 3 5 Appendix I Commissioning Test Sheet (sample) 1. Relay identification 2. Preliminary check 3. Hardware check 3.1 User interface check 3.2 Binary input/Binary output circuit check 3.3 AC input circuit check 4. Function test 4.1 Phase current differential element DIF test 4.2 Residual current differential element DIFG test 4.3 Overcurrent elements OC, EF, OCI, EFI &...
Page 323 6 F 2 S 0 8 3 5 Relay identification Type Serial number Model System frequency Station Date Circuit Engineer Protection scheme Witness Active settings group number Preliminary check Ratings CT shorting contacts DC power supply Power up Wiring Relay inoperative alarm contact Calendar and clock Hardware check...
Page 324 6 F 2 S 0 8 3 5 (3) Percentage restraining characteristic test Measured current (I 2 ) Tap setting × Tap × Tap 20 × Tap 4.2 Residual current differential element DIFG test (1) Minimum operating value test Measured current (I 2 ) Tap setting (2) Percentage restraining characteristic test Tap setting...
Page 325 6 F 2 S 0 8 3 5 (6) OCD, EFD element Element Test current Result 1.2 × Fixed setting 1.2 × Setting value 4.4 Out-of-step element test Element Measured angle OST1-α OST1-β OST2-α OST2-β 4.5 Voltage and synchronism check elements test (1) Voltage check element Element Setting...
Page 326 6 F 2 S 0 8 3 5 Appendix J Return Repair Form ⎯ 325 ⎯...
Page 327 6 F 2 S 0 8 3 5 RETURN / REPAIR FORM Please fill in this form and return it to Toshiba Corporation with the GRL100 to be repaired. TOSHIBA CORPORATION FUCHU COMPLEX 1,Toshiba-cho, Fuchu-shi, Tokyo, Japan For: Power System Protection & Control Department...
Page 328 6 F 2 S 0 8 3 5 Fault Record Date/Month/Year Time (Example: 04/ Nov./ 1997 15:09:58.442) Faulty phase: Fault Locator : km ( Prefault values (CT ratio: kA/: A, VT ratio: kV/: ° ° V a : kV or V∠ I a : kA or A∠...
Page 329 6 F 2 S 0 8 3 5 What was the message on the LCD display at the time of the incident. Please write the detail of the incident. Date of the incident occurred. Day/ Month/ Year: (Example: 10/ July/ 1998) Please write any comments on the GRL100, including the document.
Page 330 6 F 2 S 0 8 3 5 Customer Name: Company Name: Address: Telephone No.: Facsimile No.: Signature: ⎯ 329 ⎯...
Page 331 6 F 2 S 0 8 3 5 ⎯ 330 ⎯...
Page 332 6 F 2 S 0 8 3 5 Appendix K Technical Data ⎯ 331 ⎯...
Page 333 6 F 2 S 0 8 3 5 TECHNICAL DATA Ratings AC current I 1A or 5A AC voltage 100V, 110V, 115V, 120V Frequency: 50Hz or 60Hz DC power supply: 110Vdc/125Vdc (Operative range: 88 - 150Vdc) 220Vdc/250Vdc (Operative range: 176 - 300Vdc) 48Vdc/54Vdc/60Vdc (Operative range: 38.4 - 72Vdc) 24Vdc/30Vdc (Operative range: 19.2 - 36Vdc) AC ripple on DC supply IEC60255-11...
Page 334 6 F 2 S 0 8 3 5 Telecommunication Interface for current differential protection Bit rate 64kbs Transmission format IEC60870-5-1 Electrical interface (Telecomm. equipment link) Applicable standard CCITT-G703-1.2.1 CCITT-G703-1.2.2 or 1.2.3 X.21 Type of code NRZ (Non-Return to Zero) Connector type D-sub connector Optical interface (2 km class) Type of fibre...
Page 335 6 F 2 S 0 8 3 5 Breaker Failure (BF) Protection Overcurrent element 0.1 to 2.0A in 0.1A steps (1A relay) 0.5 to 10.0A in 0.1A steps (5A relay) Reset less than 80% of operating value BF timer for retry-trip of failed circuit breaker 50 to 500ms in 1ms steps BF timer for adjacent circuit breaker tripping 50 to 500ms in 1ms steps...
Page 336 6 F 2 S 0 8 3 5 Disturbance Record Initiation Overcurrent element 0.1 to 50.0A in 0.1A steps (1A relay) 0.5 to 250.0A in 0.1A steps (5A relay) Undervoltage element 0 to 132V in 1V steps (for phase fault) 0 to 76V in 1V steps (for earth fault) Pre-fault time 0.3s (fixed)
Page 337 6 F 2 S 0 8 3 5 CT REQUIREMENT Ideally it would be preferable to employ current transformers that did not saturate; this is particularly desirable if operation of the protection is to be avoided during external faults. However, there are circumstances due to accommodation requirements and occasionally on the basis of cost where this is not always possible.
Page 338 6 F 2 S 0 8 3 5 particular application is satisfactory, it is not necessary to know β and DIFI2 at this stage. Instead, the CT requirement can be obtained by following the procedure in the next section. From the point of view of hardware limitation, secondary maximum through fault current must be smaller than full scale of measurement which is 65 times rated current.
Page 339 6 F 2 S 0 8 3 5 : rated secondary burden [VA] : secondary CT resistance [ohms] : Actual secondary burden [ohms] n : rated accuracy limit factor :maximum secondary load current Lmax :maximum secondary fault current fmax Note : The values in the table are based on the following assumption. - 100% DC component is superimposed.
Page 340 6 F 2 S 0 8 3 5 restraint current：X+2Y+Z This point can be expressed in the Id-Ir plane as shown in Fig.K-3.2. It can be seen that the effect of the outflow current is to increase the apparent restraint quantity Ir and thereby shift the point to the right of where it would normally fall.
Page 341 6 F 2 S 0 8 3 5 <Accuracy limit factor of CTs is given> Table K-3.2 CT Requirement defined by n’ Td [ms] Requirement 1 Requirement 2 n’ I ≧ 3.75 × I n’ I > Max{I /2, I ×18 fmax LMAX...
Page 342 6 F 2 S 0 8 3 5 ENVIRONMENTAL PERFORMANCE CLAIMS Test Standards Details Atmospheric Environment Operating range: -10°C to +55°C. Temperature I1EC60068-2-1/2 Storage / Transit: -25°C to +70°C. Humidity IEC60068-2-78 56 days at 40°C and 93% relative humidity. Enclosure Protection IEC60529 IP51 (Rear: IP20) Mechanical Environment...
Page 343 6 F 2 S 0 8 3 5 ⎯ 342 ⎯...
Page 344 6 F 2 S 0 8 3 5 Appendix L Symbols Used in Scheme Logic ⎯ 343 ⎯...
Page 345 6 F 2 S 0 8 3 5 Symbols used in the scheme logic and their meanings are as follows: Signal names Marked with : Measuring element output signal Marked with : Signal number Marked with : Signal number and name of binary input by PLC function Signal No.
Page 346 6 F 2 S 0 8 3 5 Signal inversion Output Output Timer Delayed pick-up timer with fixed setting XXX: Set time Delayed drop-off timer with fixed setting XXX: Set time Delayed pick-up timer with variable setting XXX - YYY: Setting range XXX - YYY Delayed drop-off timer with variable setting XXX - YYY: Setting range...
Page 347 6 F 2 S 0 8 3 5 ⎯ 346 ⎯...
Page 348 6 F 2 S 0 8 3 5 Appendix M Multi-phase Autoreclose ⎯ 347 ⎯...
Page 349 6 F 2 S 0 8 3 5 Table M-1 and M-2 show operations of the multi-phase autoreclose for different faults. The operations of the autoreclose depend on the settings of [ARC-M] and [MA-NOLK]. Cases 1 to 3 show the case when one of the double circuit lines is out of service. In MPAR2 and [MA-NOLK]=FT, only case 1 results in single-phase tripping and multi-phase reclosing.
Page 350 6 F 2 S 0 8 3 5 Table M-2 Reclosing in MPAR3 ([ARC-M]=M3 setting) Tripping and Reclosing (Tripping mode → Reclosing mode) Fault phase Case #1 line #2 line [MA-NOLK] = FT setting [MA-NOLK] = T setting [MA-NOLK] = S+T setting #1 line #2 line #1 line...
Page 351 6 F 2 S 0 8 3 5 ⎯ 350 ⎯...
Page 352 6 F 2 S 0 8 3 5 Appendix N Data Transmission Format ⎯ 351 ⎯...
Page 353 6 F 2 S 0 8 3 5 Transmission Format The data transmission format depends on the communication mode. Figures N-1 and N-2 show the data transmission format that applies to the data transmission between terminals of the transmission lines by the relay. The individual parts of the transmission format are described below.
Page 354 6 F 2 S 0 8 3 5 Table N-1 User Configurable data Transmission data Sending side Receiving side Remarks 12 bits × (Ia, Ib, Ic) 12 bits × (Ia, Ib, Ic) Phase current Fixed. Positive-sequence A-MODE: V1 fixed. 4 bits / 1 frame (sent A-MODE: V1 fixed.
Page 355 6 F 2 S 0 8 3 5 Next Frame 88 bits Frame 1 Ia Ib 1 1 Ic V1 1 Io 1 CRC header 10 bits 4 1 4 3 1 1 1 1 1 1 1 1 2 1 Fixed SUB2 COM1...
Page 356 6 F 2 S 0 8 3 5 Next 88 bits Frame Frame 1 Ia Ib 1 1 Ic V1 1 Io 1 CRC header 10 bits 4 1 4 3 1 1 1 1 1 1 1 1 2 1 Fixed SUB2 SUB3...
Page 357 6 F 2 S 0 8 3 5 SUB2_COM1 to SUB2_COM12: These commands are assigned to bits (RA∗) for relay address monitoring RYIDSV as default setting. If the RYIDSV is not used, the user can use these commands. If multi-phase autoreclosing function is applied, for example, these commands are assigned to CBDS-A, -B and –C such as shown in Figure N-1.
Page 358 6 F 2 S 0 8 3 5 Appendix O Example of DIF and DIFG Setting ⎯ 357 ⎯...
Page 359 6 F 2 S 0 8 3 5 1. Segregated-phase Current Differential Element DIF (1) Small current region DIFI1 The characteristic of the DIF for small current region is expressed by the following equation. I d ≥ (1/6)I r + (5/6)DIFI1 Where, DIFI1 defines the minimum operating current.
Page 360 6 F 2 S 0 8 3 5 Appendix P Programmable Reset Characteristics and Implementation of Thermal Model to IEC60255-8 ⎯ 359 ⎯...
Page 361 6 F 2 S 0 8 3 5 Programmable Reset Characteristics The overcurrent stages for phase and earth faults, OC1 and EF1, each have a programmable reset feature. Resetting may be instantaneous or definite time delayed. Instantaneous resetting is normally applied in multi-shot auto-reclosing schemes, to ensure correct grading between relays at various points in the scheme.
Page 362 6 F 2 S 0 8 3 5 Implementation of Thermal Model to IEC60255-8 Heating by overload current and cooling by dissipation of an electrical system follow exponential time constants. The thermal characteristics of the electrical system can be shown by equation (1). ⎛...
Page 363 6 F 2 S 0 8 3 5 In fact, the cold curve is simply a special case of the hot curve where prior load current I = 0, catering for the situation where a cold system is switched on to an immediate overload. Figure P-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.
Page 364 6 F 2 S 0 8 3 5 Appendix Q IEC60870-5-103: Interoperability ⎯ 363 ⎯...
Page 365 6 F 2 S 0 8 3 5 IEC60870-5-103 Configurator IEC103 configurator software is included in a same CD as RSM100, and can be installed easily as follows: Installation of IEC103 Configurator Insert the CD-ROM (RSM100) into a CDROM drive to install this software on a PC. Double click the “Setup.exe”...
Page 366 6 F 2 S 0 8 3 5 2. Application Layer COMMON ADDRESS of ASDU One COMMON ADDRESS OF ASDU (identical with station address) 3. List of Information The following items can be customized with the original software tool “IEC103 configurator”. (For details, refer to “IEC103 configurator”...
Page 367 6 F 2 S 0 8 3 5 This means that CAUSE OF TRANSMISSION = 7 ‘test mode’ is used for messages normally transmitted with COT=1 (spontaneous) or COT=2 (cyclic). For details, refer to the standard IEC60870-5-103 section 7.4.5. 3.1.6 Blocking of monitor direction If the blocking of the monitor direction is activated in the protection equipment, all indications and measurands are no longer transmitted.
Page 368 6 F 2 S 0 8 3 5 List of Information IEC103 Configurator Default setting Description Contents GI Type Signal No. OFF ON Standard Information numbers in monitor direction System Function End of General Interrogation Transmission completion of GI items. Time Synchronization Time Synchronization ACK.
Page 369 6 F 2 S 0 8 3 5 IEC103 Configurator Default setting Description Contents Type Signal NO. OFF ON Fault Indications Start/pick-up L1 A phase, A-B phase or C-A phase element pick-up No set Start/pick-up L2 B phase, A-B phase or B-C phase element pick-up No set Start/pick-up L3 C phase, B-C phase or C-A phase element pick-up...
Page 370 6 F 2 S 0 8 3 5 IEC103 configurator Default setting Description Contents Type Max. No. Measurands 144 Measurand I <meaurand I> 145 Measurand I,V <meaurand I> 146 Measurand I,V,P,Q <meaurand I> 147 Measurand IN,VEN <meaurand I> Measurand IL1,2,3, VL1,2,3, Ia, Ib, Ic, Va, Vb, Vc, P, Q, f measurand 2, 7 P,Q,f...
Page 371 6 F 2 S 0 8 3 5 IEC103 Configurator Default setting Description Contents Type Control direction Selection of standard information numbers in control direction System functions Initiation of general interrogation Time synchronization General commands Auto-recloser on/off ON/OFF Teleprotection on/off ON/OFF Protection on/off (*1)
Page 372 6 F 2 S 0 8 3 5 Description Contents GRL100 supported Comment Basic application functions Test mode Blocking of monitor direction Disturbance data Generic services Private data Miscellaneous Max. MVAL = rated Measurand value times Current L1 Configurable Current L2 Configurable Current L3 Configurable...
Page 373 6 F 2 S 0 8 3 5 [Legend] GI: General Interrogation (refer to IEC60870-5-103 section 7.4.3) Type ID: Type Identification (refer to IEC60870-5-103 section 7.2.1) 1 : time-tagged message 2 : time-tagged message with relative time 3 : measurands I 4 : time-tagged measurands with relative time 5 : identification 6 : time synchronization...
Page 374 6 F 2 S 0 8 3 5 IEC103 setting data is recommended to be saved as follows: (1) Naming for IEC103setting data The file extension of IEC103 setting data is “.csv”. The version name is recommended to be provided with a revision number in order to be changed in future as follows: ∗∗∗∗∗∗_01.csv First draft: ∗∗∗∗∗∗_02.csv...
Page 375 6 F 2 S 0 8 3 5 Troubleshooting Phenomena Supposed causes Check / Confirmation Object Procedure Communication Address setting is incorrect. Match address setting between BCU and relay. trouble (IEC103 Avoid duplication of address with other relay. communication is Transmission baud rate setting is Match transmission baud rate setting between not available.)
Page 376 6 F 2 S 0 8 3 5 Phenomena Supposed causes Check / Confirmation Object Procedure HMI does not The relevant event sending condition is Change the event sending condition (signal display IEC103 not valid. number) of IEC103 configurator if there is a setting event on the SAS error.
Page 377 6 F 2 S 0 8 3 5 ⎯ 376 ⎯...
Page 378 6 F 2 S 0 8 3 5 Appendix R Failed Module Tracing and Replacement ⎯ 377 ⎯...
Page 379 6 F 2 S 0 8 3 5 1. Failed module tracing and its replacement If the “ALARM” LED is ON, the following procedure is recommended. If not repaired, contact the vendor. Procedure Countermeasure No failure “ALARM” LED ON? Not displayed Press [VIEW] key Any LCD messages? Contact the vendor.
Page 380 6 F 2 S 0 8 3 5 Table R-1 LCD Message and Failure Location Message Failure location IO3, Channel Discon- (GCOM) IO5, nector cable IO8(*) Checksum err × ROM-RAM err × SRAM err × BU-RAM err × DPRAM err ×...
Page 381 6 F 2 S 0 8 3 5 2. Methods of Replacing the Modules CAUTION When handling a module, take anti-static measures such as wearing an earthed wrist band and placing modules on an earthed conductive mat. Otherwise, many of the electronic components could suffer damage. CAUTION After replacing the SPM and/or FD modules, check all of the settings including the data related the PLC and IEC103, etc.
Page 382 6 F 2 S 0 8 3 5 5). Unplug the cables. Unplug the ribbon cable running among the modules by nipping the catch (in case of black connector) and by pushing the catch outside (in case of gray connector) on the connector. Gray connector Black connector 6).
Page 383 6 F 2 S 0 8 3 5 9). Lamp Test • RESET key is pushed 1 second or more by LCD display off. • It checks that all LCDs and LEDs light on. 10). Check the automatic supervision functions. •...
Page 384 6 F 2 S 0 8 3 5 Appendix S PLC Setting Sample ⎯ 383 ⎯...
Page 385 6 F 2 S 0 8 3 5 PLC setting sample for autoreclosing (UARCSW application) If the follower Terminal is reclosed after checking the leader Terminal reclosed in the autoreclose mode “SPAR”, the leader Terminal is assigned to the signal number 1 with signal name “CONSTANT_1”...
Page 386 6 F 2 S 0 8 3 5 Appendix T Ordering ⎯ 385 ⎯...
Page 387 6 F 2 S 0 8 3 5 Ordering 1. Line Differential Protection Relay a. Two-terminal application GRL100 − − − B− Relay Type: Line differential protection relay GRL100 Relay Model: -Model100: No autoreclose 18 BIs, 13 BOs, 6 trip BOs 18 BIs, 23 BOs, 6 trip BOs -Model200: With autoreclose for single breaker scheme 25 BIs, 19 BOs, 6 trip BOs...
Page 388 6 F 2 S 0 8 3 5 b. Three-terminal application GRL100 − − − B− Relay Type: Line differential protection relay GRL100 Relay Model: -Model100: No autoreclose 18 BIs, 13 BOs, 6 trip BOs 18 BIs, 23 BOs, 6 trip BOs -Model200: With autoreclose for single breaker scheme 25 BIs, 19 BOs, 6 trip BOs 28 BIs, 37 BOs, 6 trip BOs...
Page 389 6 F 2 S 0 8 3 5 2. Optical Interface Unit (Option) − − G1IF1 Type: Communication interface box G1IF1 Model: For X21 (∗) For CCITT-G703-1.2.1 For CCITT-G703-1.2.2 or 1.2.3 For X21 DC auxiliary power supply: DC 48V/54V/60V DC 110V/125V DC 220V/250V Note (∗): With Outer case.
Page 390 6 F 2 S 0 8 3 5 Version-up Records Version Date Revised Section Contents May. 19, 2005 First issue. Jul. 12, 2005 2.2.9 Added Section 2.2.9 ‘Blind Zone Protection’. Jul. 25, 2005 Added the description (Note). 3.3.4 Added Section 3.3.4. 3.3.10 Modified Table 3.3.10.1.
Page 391 6 F 2 S 0 8 3 5 Version Date Revised Section Contents Sep. 27, 2007 2.10.2.2 Modified the description and Figure 2.10.2.8. 2.12.2 Modified the description. 4.2.3.1 Added the description on the sample of fault record screen. 4.2.7.5 Added the description of ‘Note’. 6.7.3 Modified the description of ‘CAUTION’.

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Toshiba GRL100-101A Instruction Manual

1 Introduction

2 Application Notes

3 Technical Description

5 Installation

6 Commissioning and Maintenance

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