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Overcurrent element with definite time or inverse time delay

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For inverse time overcurrent protection, characteristics according to IEC or ANSI standards, one userde-
fined and two logarithmic inverse current/time characteristics are available

•

Direction determination with zero sequence quantities(

Ι

0

, V

0

), wattmetric ground fault direction determi-

nation

•

Any element can be set as directional or non-directional — forward sensing directional, or reverse
sensing directional

•

Directional characteristic curve adjustable

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Optionally applicable as additional ground fault protection.

Intermittent Ground Fault Protection

•

Detects and accumulates intermittent ground faults

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Tripping after configurable total time.

Directional intermittent ground fault protection

•

Detects intermittent ground faults

•

Direction determination

•

Tripping after settable number of intermittent re-ignitions

Automatic Reclosing 79

•

Single-shot or multi-shot

•

With separate dead times for the first and all succeeding shots

•

Protective elements that initiate automatic reclosing are selectable. The choices can be different for
phase faults and ground faults

•

Separate programs for phase and ground faults

•

Interaction to time overcurrent protection element and ground fault elements. They can be blocked in
dependence of the reclosing cycle or released instantaneously

•

Synchronous reconnection is possible (only for 7SJ623, 7SJ624, 7SJ625, 7SJ626 und 7SJ64) in combina-
tion with the integrated synchronization function..

Fault Location

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Initiation by trip command, external command or dropout of pickup

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Calculation of the fault distance and output of the fault location in ohms (primary and secondary) and in
kilometers or miles

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Up to three line sections can be configured.

Breaker Failure Protection 50 BF

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By checking the current and/or evaluating the circuit breaker auxiliary contacts

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Started by any integrated protection function that trips

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Initiation possible via a binary input from an external protective device.

Flexible Protective Functions

•

Up to 20 customizable protection functions with three-phase or single-phase operation

•

Any calculated or directly measured quantity can be evaluated on principle

•

Standard protection logic with definite time characteristic

Introduction
1.3 Characteristics

28

SIPROTEC 4, 7SJ62/64, Manual

C53000-G1140-C207-8, Edition 08.2016

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Summary of Contents for SIPROTEC 4

Page 1: ...ble of Contents Introduction 1 Functions 2 Mounting and Commissioning 3 Technical Data 4 Ordering Information and Accessories A Terminal Assignments B Connection Examples C Current Transformer Requirements D Default Settings and Protocol dependent Functions E Functions Settings Information F Literature Glossary Index ...

Page 2: ... We appreciate any suggested improvements We reserve the right to make technical improvements without notice Document version V04 42 00 Release date 08 2016 Copyright Copyright Siemens AG 2016 All rights reserved Dissemination or reproduction of this document or evalua tion and communication of its contents is not authorized except where expressly permitted Violations are liable for damages All ri...

Page 3: ...nd power plants Applicability of this Manual This manual applies to SIPROTEC 4 Multi Functional Protective Relay with Local Control 7SJ62 64 Firmware version V4 9 Indication of Conformity This product complies with the directive of the Council of the European Communities on the approximation of the laws of the Member States relating to electromagnetic compatibility EMC Council Directive 2004 108 E...

Page 4: ...vice as special operational conditions may require additional measures However it comprises important information that should be noted for purposes of personal safety as well as avoiding material damage Information that is highlighted by means of a warning triangle and according to the degree of danger is illustrated as follows DANGER Danger indicates that death severe personal injury or substanti...

Page 5: ...ill be charged Operational equipment with open circuited current transformer circuits may not be operated The limit values as specified in this manual or in the operating instructions may not be exceeded This aspect must also be observed during testing and commissioning Typographic and Symbol Conventions The following text formats are used when literal information from the device or to the device ...

Page 6: ...AND gate operation of input values OR gate operation of input values Exclusive OR gate antivalence output is active if only one of the inputs is active Coincidence gate output is active if both inputs are active or inactive at the same time Dynamic inputs edge triggered above with positive below with negative edge Formation of one analog output signal from a number of analog input signals Limit st...

Page 7: ...Static memory RS flipflop with setting input S resetting input R output Q and inverted output Q resetting input dominant Preface SIPROTEC 4 7SJ62 64 Manual 7 C53000 G1140 C207 8 Edition 08 2016 ...

Page 8: ...8 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 9: ...tes 41 2 1 3 3 Settings 46 2 1 3 4 Information List 48 2 1 4 Oscillographic Fault Records 48 2 1 4 1 Description 48 2 1 4 2 Setting Notes 49 2 1 4 3 Settings 49 2 1 4 4 Information List 50 2 1 5 Settings Groups 50 2 1 5 1 Description 50 2 1 5 2 Setting Notes 50 2 1 5 3 Settings 50 2 1 5 4 Information List 51 2 1 6 Power System Data 2 51 2 1 6 1 Description 51 2 1 6 2 Setting Notes 51 2 1 6 3 Setti...

Page 10: ...nts 67 TOC 67N TOC 91 2 3 5 Interaction with Fuse Failure Monitor FFM 92 2 3 6 Dynamic Cold Load Pickup Function 93 2 3 7 Inrush Restraint 93 2 3 8 Determination of Direction 93 2 3 9 Reverse Interlocking for Double End Fed Lines 97 2 3 10 Setting Notes 98 2 3 11 Settings 106 2 3 12 Information List 109 2 4 Dynamic Cold Load Pickup 111 2 4 1 Description 111 2 4 2 Setting Notes 113 2 4 3 Settings 1...

Page 11: ...3 Settings 170 2 10 4 Information List 171 2 11 Thermal Overload Protection 49 172 2 11 1 Description 172 2 11 2 Setting Notes 175 2 11 3 Settings 178 2 11 4 Information List 179 2 12 Monitoring Functions 180 2 12 1 Measurement Supervision 180 2 12 1 1 General 180 2 12 1 2 Hardware Monitoring 180 2 12 1 3 Monitoring of the Hardware Modules 182 2 12 1 4 Software Monitoring 183 2 12 1 5 Monitoring o...

Page 12: ...nitoring of the Circuit Breaker 242 2 16 4 Controlling Protection Elements 243 2 16 5 Zone Sequencing Fuse Saving Scheme 245 2 16 6 Setting Notes 246 2 16 7 Settings 251 2 16 8 Information List 258 2 17 Fault Locator 260 2 17 1 Description 260 2 17 2 Setting Notes 261 2 17 3 Settings 262 2 17 4 Information List 262 2 18 Breaker Failure Protection 50BF 263 2 18 1 Description 263 2 18 2 Setting Note...

Page 13: ...ssage Processing 317 2 25 1 1 LED Displays and Binary Outputs Output Relays 317 2 25 1 2 Information on the Integrated Display LCD or Personal Computer 317 2 25 1 3 Information to a Substation Control Center 319 2 25 2 Statistics 319 2 25 2 1 Description 319 2 25 2 2 Circuit Breaker Maintenance 320 2 25 2 3 Motor Statistics 326 2 25 2 4 Setting Notes 327 2 25 2 5 Information List 328 2 25 2 6 Info...

Page 14: ...pes of Commands 355 2 27 2 1 Description 355 2 27 3 Command Sequence 355 2 27 3 1 Description 355 2 27 4 Interlocking 356 2 27 4 1 Description 356 2 27 5 Command Logging 363 2 27 5 1 Description 364 3 Mounting and Commissioning 365 3 1 Mounting and Connections 366 3 1 1 Configuration Information 366 3 1 2 Hardware Modifications 370 3 1 2 1 General 370 3 1 2 2 Disassembly 372 3 1 2 3 Switching Elem...

Page 15: ...6 Creating Oscillographic Recordings for Tests 434 3 4 Final Preparation of the Device 436 4 Technical Data 437 4 1 General Device Data 438 4 1 1 Analog Inputs 438 4 1 2 Auxiliary Voltage 438 4 1 3 Binary Inputs and Outputs 439 4 1 4 Communication Interfaces 441 4 1 5 Electrical Tests 445 4 1 6 Mechanical Tests 447 4 1 7 Climatic Stress Tests 447 4 1 8 Service Conditions 448 4 1 9 Certifications 4...

Page 16: ...nel Surface Mounting Housing Size 1 1 520 4 29 7 Housing for Mounting with Detached Operator Panel or without Operator Panel Housing Size 1 2 521 4 29 8 Housing for Mounting with Detached Operator Panel or without Operator Panel Housing Size 1 1 522 4 29 9 Detached Operator Panel 523 4 29 10 D Subminiature Connector of Dongle Cable Panel Flush or Cubicle Door Cutout 524 4 29 11 Varistor 524 A Orde...

Page 17: ... D 1 Accuracy limiting factors 596 D 2 Class conversion 597 D 3 Cable core balance current transformer 598 E Default Settings and Protocol dependent Functions 599 E 1 LEDs 600 E 2 Binary Input 601 E 3 Binary Output 602 E 4 Function Keys 603 E 5 Default Display 604 E 6 Pre defined CFC Charts 608 E 7 Protocol dependent Functions 611 F Functions Settings Information 613 F 1 Functional Scope 614 F 2 S...

Page 18: ...18 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 19: ...roduced in this section An overview of the devices is presented in their application characteristics and scope of functions 1 1 Overall Operation 20 1 2 Application Scope 23 1 3 Characteristics 25 1 SIPROTEC 4 7SJ62 64 Manual 19 C53000 G1140 C207 8 Edition 08 2016 ...

Page 20: ... the model the fourth current input ΙN may be used for measuring the ground fault current ΙN current transformer neutral point or for a separate ground current transformer for sensitive ground fault detection ΙNs and directional determination of ground faults hw struktur 7sj62 63 110602 kn 1 en_US Figure 1 1 Hardware structure of the numerical multi functional device 7SJ621 622 Voltage inputs can ...

Page 21: ...digital multifunctional protection devices 7SJ623 7SJ624 7SJ625 7SJ626 and 7SJ62 64 Microcomputer System Apart from processing the measured values the microcomputer system μC also executes the actual protec tion and control functions They especially include Filtering and preparation of the measured quantities Continuous monitoring of the measured quantities Monitoring of the pickup conditions for ...

Page 22: ...Rear Service Interface can also be used to communicate with the relay from a PC running the DIGSI soft ware This interface is especially well suited for a permanent connection of the devices to the PC or for opera tion via a modem The service interface can also be used to connect an RTD box resistance temperature detector for obtaining external temperatures e g for overload protection The Addition...

Page 23: ...as well as automatic reclosing 79 which allows different reclosing cycles on overhead lines An automatic reclosing system may also be connected externally To ensure quick detection of the fault the device is equipped with a fault locator A protection feature can be ordered for the detection of intermittent ground faults which detects and accumu lates transient ground faults External detectors acco...

Page 24: ... Box resistance tempera ture detector for entering external temperatures It can also be operated via data lines or fibre optic cables The system interface ensures the central communication between the device and the substation controller It can also be operated via data lines or fibre optic cables Standard protocols are available to transmit data according to IEC 60870 5 103 via system port The in...

Page 25: ...nal binary input signal or system interface command Motor Statistics Recording of important statistical motor data operation and startup information Switching statistics Counting the number of trip commands initiated by the device logging the currents of the last switch off operation initiated by the device and accumulating the eliminated short circuit currents of each breaker pole Operating hours...

Page 26: ...former Suitable as differential protection that includes the neutral point current on transformer side generator side or motor side or for a grounded reactor set As tank leakage protection against abnormal leakage currents between transformer tanks and ground Voltage Protection 27 59 Two element undervoltage detection via the positive sequence system of the voltages phase to phase or phase to grou...

Page 27: ...Thermal Overload Protection 49 Thermal profile of energy losses overload protection has full memory capability True r m s calculation Adjustable thermal warning element Adjustable alarm level based on current magnitude Additional time constant setting for motors to accommodate the motor at standstill Integration of ambient temperature or coolant temperature is possible via external temperature sen...

Page 28: ...hoices can be different for phase faults and ground faults Separate programs for phase and ground faults Interaction to time overcurrent protection element and ground fault elements They can be blocked in dependence of the reclosing cycle or released instantaneously Synchronous reconnection is possible only for 7SJ623 7SJ624 7SJ625 7SJ626 und 7SJ64 in combina tion with the integrated synchronizati...

Page 29: ...aintenance Statistical methods to help adjust maintenance intervals for CB contacts according to their actual wear several independent subfunctions have been implemented ΣΙ procedure ΣΙx procedure 2P procedure and Ι2t procedure Acquisition and conditioning of measured values for all subfunctions operates phase selective using one procedure specific threshold per subfunction User Defined Functions ...

Page 30: ...30 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 31: ...ection 46 137 2 8 Motor Protection 144 2 9 Frequency Protection 81 O U 163 2 10 27 Q 167 2 11 Thermal Overload Protection 49 172 2 12 Monitoring Functions 180 2 13 Ground Fault Protection 64 67N s 50N s 51N s 200 2 14 Intermittent Ground Fault Protection 225 2 15 Dir Intermittent earth fault protection 231 2 16 Automatic Reclosing System 79 236 2 17 Fault Locator 260 2 18 Breaker Failure Protectio...

Page 32: ...elay see A Ordering Information and Accessories Setting Notes Setting the Functional Scope Configuration settings can be entered using a PC and the software program DIGSI and transferred via the front serial port or the rear service interface of the device The operation via DIGSI is explained in the SIPROTEC 4 System Description For changing configuration parameters in the device password no 7 is ...

Page 33: ...ation function is Disabled or Enabled The latter is determined by selecting the operating mode ASYN SYNCHRON closing takes place for asynchronous and synchronous conditions or SYNCHROCHECK corresponds to the classical synchrocheck function 7SJ62 only provides the function SYNCHROCHECK For the circuit breaker maintenance function several options are available under address 172 52 B WEAR MONIT Irres...

Page 34: ...ault Records 112 Charac Phase Disabled Definite Time TOC IEC TOC ANSI User Defined PU User def Reset Definite Time 50 51 113 Charac Ground Disabled Definite Time TOC IEC TOC ANSI User Defined PU User def Reset Definite Time 50N 51N 115 67 67 TOC Disabled Definite Time TOC IEC TOC ANSI User Defined PU User def Reset Definite Time 67 67 TOC 116 67N 67N TOC Disabled Definite Time TOC IEC TOC ANSI Use...

Page 35: ...rts Disabled Enabled Disabled 66 Startup Counter for Motors 144 LOAD JAM PROT Disabled Enabled Disabled Load Jam Protection 150 27 59 Disabled Enabled Disabled 27 59 Under Overvoltage Protec tion 154 81 O U Disabled Enabled Disabled 81 Over Underfrequency Protec tion 155 27 Q Protection Disabled Enabled Disabled 27 Q dir con Protection 161 25 Function 1 Disabled ASYN SYNCHRON SYNCHROCHECK Disabled...

Page 36: ...implex Ext Temperature Input Connec tion Type FLEXIBLE FCT 1 20 Flexible Function 01 Flexible Function 02 Flexible Function 03 Flexible Function 04 Flexible Function 05 Flexible Function 06 Flexible Function 07 Flexible Function 08 Flexible Function 09 Flexible Function 10 Flexible Function 11 Flexible Function 12 Flexible Function 13 Flexible Function 14 Flexible Function 15 Flexible Function 16 ...

Page 37: ...splay Reset of Stored LED Relays Pickup of a new protection function generally deletes all stored LED relays so that only the information of the latest fault is displayed at a time The deletion of the stored LED and relays can be inhibited for a settable time under address 625 T MIN LED HOLD Any information occurring during this time are then combined with a logical OR function Under address 610 F...

Page 38: ...ges are listed in E Default Settings and Protocol dependent Functions IEC60870 5 103 Measured Value Telegrams Via parameter T103 with 16 MV address 617 the scope of measured values to be transmitted to a master can be influenced Normally setting NO the maximum scope of measured values is transmitted using several measured value telegrams If set to YES the transmission is restricted to one measured...

Page 39: ...figured SP No Function configured 2 Non Existent SP Function Not Available 3 Time Synch SP_Ev Synchronize Internal Real Time Clock 5 Reset LED SP Reset LED 15 Test mode SP Test mode 16 DataStop SP Stop data transmission 51 Device OK OUT Device is Operational and Protecting 52 ProtActive IntSP At Least 1 Protection Funct is Active 55 Reset Device OUT Reset Device 56 Initial Start OUT Initial Start ...

Page 40: ...t 303 sens Gnd flt OUT sensitive Ground fault 320 Warn Mem Data OUT Warn Limit of Memory Data exceeded 321 Warn Mem Para OUT Warn Limit of Memory Parameter exceeded 322 Warn Mem Oper OUT Warn Limit of Memory Operation exceeded 323 Warn Mem New OUT Warn Limit of Memory New exceeded 335 GOOSE Stop SP GOOSE Stop 502 Relay Drop Out SP Relay Drop Out 510 Relay CLOSE SP General CLOSE of relay 545 PU Tim...

Page 41: ...for clockwise rotation if your power system permanently has an anti clockwise phase sequence A C B A temporary reversal of rota tion is also possible using binary inputs see Section 2 23 2 Setting Notes Temperature Unit Power System Address 276 TEMP UNIT allows displaying the temperature values either in degrees Celsius or in degrees Fahrenheit Polarity of Current Transformers Power System At addr...

Page 42: ...rrents example The phase currents ΙA and ΙC must be connected to the first current input terminals Q1 Q2 and to the third terminals Q5 Q6 At the fourth input terminals Q7 Q8 the ground current ΙN or ΙNS is connected as usual in this case the ground current of the line A second ground current in this case the transformer neutral point current is connected to the second current input ΙN2 terminals Q...

Page 43: ...e phase voltages are wye connected VT Connect 3ph Vab Vbc VGnd means that two phase to phase voltages open delta voltage and VN are connected The latter setting also has to be selected when only two phase to phase voltage trans formers are used or when only the displacement voltage zero sequence voltage is connected to the device Vab Vbc Vx if two phase to phase voltages open delta connection and ...

Page 44: ...supply fails Nominal Values of Current Transformers CTs At addresses 204 CT PRIMARY and 205 CT SECONDARY information is entered regarding the primary and secondary ampere ratings of the current transformers It is important to ensure that the rated secondary current of the current transformer matches the rated current of the device otherwise the device will calculate incorrect primary data At addre...

Page 45: ...eaker is considered closed The threshold value setting applies to all three phases and must take into consideration all used protection functions The pickup threshold for the breaker failure protection is set separately see 2 18 2 Setting Notes When using the device as motor protection and using the overload protection load jam protection and restart inhibit the protective relay can distinguish be...

Page 46: ...e indicates region specific presettings Column C configuration indicates the corresponding secon dary nominal current of the current transformer Addr Parameter C Setting Options Default Setting Comments 201 CT Starpoint towards Line towards Busbar towards Line CT Starpoint 202 Vnom PRIMARY 0 10 800 00 kV 12 00 kV Rated Primary Voltage 203 Vnom SECONDARY 100 225 V 100 V Rated Secondary Voltage L L ...

Page 47: ...2 Isc 52 10 100000 A 25000 A Rated Short Circuit Breaking Current 263 OP CYCLES Isc 1 1000 50 Switch Cycles at Rated Short Cir Curr 264 Ix EXPONENT 1 0 3 0 2 0 Exponent for the Ix Method 265 Cmd via control Einstellmöglichkeiten anwendungsabhängig none 52 B Wear Open Cmd via Control Device 266 T 52 BREAKTIME 1 600 ms 80 ms Breaktime 52 Breaker 267 T 52 OPENING 1 500 ms 65 ms Opening Time 52 Breake...

Page 48: ...required In addition to protection pickup the fault record buffer can also be started via a binary input or the serial interface Description The data can be retrieved via the serial interfaces by means of a personal computer and evaluated with the protection data processing program DIGSI and the graphic analysis software SIGRA 4 The latter graphically represents the data recorded during the system...

Page 49: ...2 WAVEFORM DATA Pow Sys Flt This facilitates the representation of the entire system fault history but also consumes storage capacity during the automatic reclosing dead time s The actual storage time begins at the pre fault time PRE TRIG TIME address 404 ahead of the reference instant and ends at the post fault time POST REC TIME address 405 after the storage criterion has reset The maximum stora...

Page 50: ...iguration see Section 2 1 1 2 Setting Notes In 7SJ62 64 relays four independent setting groups A to D are available While setting values may vary the selected functions of each setting group remain the same Setting Notes General If setting group change option is not required Group A is the default selection Then the rest of this section is not applicable If the changeover option is desired group c...

Page 51: ...eCurr the primary reference voltage phaseto phase and reference current phase of the protected equipment is entered e g motors If these reference sizes match the primary nominal values of the VTs and CTs they correspond to the settings in address 202 and 204 Section 2 1 3 2 Setting Notes They are generally used to show values referenced to full scale Ground Impedance Ratios only for Fault Location...

Page 52: ...e value x i e in Ω mile if set to distance unit Miles address 215 see Section 2 1 3 2 Setting Notes under Distance Unit or in Ω km if set to distance unit km If after having entered the reactance per unit length the distance unit is changed under address 215 the reactance per unit length must be reconfigured in accordance with the new distance unit The values under address 1106 km or 1105 Miles ap...

Page 53: ...dress 6005 for line section 2 address 6015 for line section 3 address 6025 This data can be used for the entire line or line section or as distance related values since the quotients are independent of the distance It is also irrelevant whether the quotients were derived from primary or secon dary values Calculation Example 110 kV free line 150 mm2 with the following data R 1 0 19 Ω km 0 31 Ω mile...

Page 54: ... to make different settings for the forward direction for the protection functions and the positive direction for the power etc e g to have the active power supply from the line to the busbar displayed positively To do so set address 1108 P Q sign to reversed If the setting is not reversed default the positive direction for the power etc corresponds to the forward direction for the protection func...

Page 55: ...1 Miles S2 line length in miles 6017 S2 Line length 0 1 1000 0 km 100 0 km S2 Line length in kilometer 6021 S3 RE RL 0 33 7 00 1 00 S3 Zero seq compen sating factor RE RL 6022 S3 XE XL 0 33 7 00 1 00 S3 Zero seq compen sating factor XE XL 6023 S3 x 1A 0 0050 15 0000 Ω mi 0 2420 Ω mi S3 feeder reactance per mile x 5A 0 0010 3 0000 Ω mi 0 0484 Ω mi 6024 S3 x 1A 0 0050 9 5000 Ω km 0 1500 Ω km S3 feed...

Page 56: ...e operation Parallel to the process control integration of the device this interface can also be used for communication with DIGSI and for inter relay communication via GOOSE Setting Notes Interface Selection No special settings are required for operating the Ethernet system interface module IEC 1850 Ethernet EN100 Modul If the ordered version of the device is equipped with such a module it is aut...

Page 57: ...l is an exception in this case If a circuit breaker is manually closed onto a fault it can be re opened immediately For overcurrent elements or high set elements the delay may be bypassed via a Manual Close pulse thus resulting in high speed tripping This pulse is extended up to at least 300 ms The automatic reclosure function 79 may also initiate immediate tripping for the overcurrent and high se...

Page 58: ...s below the threshold Therefore the func tion does not drop out at high speed The trip delay time 50 3 DELAY 50 2 DELAY or 50N 3 DELAY 50N 2 DELAY continues running in the meantime After the dropout delay time has elapsed the pickup is reported OFF and the trip delay time is reset unless the threshold 50 3 PICKUP 50 2 PICKUP or 50N 3 PICKUP 50N 2 PICKUP has been exceeded again If the threshold is ...

Page 59: ...E is set to 50 2 instant or 50 3 instant and manual close detection is used a pickup causes instantaneous tripping even if the element is blocked via binary input The same applies to 79 AR 50 2 inst or 79 AR 50 3 inst Functions 2 2 Overcurrent Protection 50 51 50N 51N SIPROTEC 4 7SJ62 64 Manual 59 C53000 G1140 C207 8 Edition 08 2016 ...

Page 60: ...if no inrush current is detected or inrush restraint is disa bled If the inrush restraint feature is enabled and an inrush condition exists no tripping takes place but a message is recorded and displayed indicating when the overcurrent element time delay elapses Trip signals and signals on the expiration of time delay are available separately for each element The dropout value is approximately 95 ...

Page 61: ... intermittent fault These elements can be blocked by the automatic reclosing function 79 AR The following figures show the logic diagrams for the current elements 50 1 and 50N 1 7sj6x ueberstromst i fuer ph 20061212 1 en_US Figure 2 7 Logic diagram for the 50 1 overcurrent element for phases If parameter MANUAL CLOSE is set to 50 1 instant and manual close detection is used a pickup causes instant...

Page 62: ...as the pickup conditions arrive even if the element is blocked via a binary input The same applies to 79 AR 50N 1 inst The pickup values of each 50 1 50 2 element for the phase currents and 50N 1 50N 2 element for the ground current and the valid delay times for each element can be set individually The dropout delay only functions if no inrush was detected An incoming inrush will reset a running d...

Page 63: ...ng value the corresponding element picks up and is signaled individually If the inrush restraint function is used either the normal pickup signals or the corresponding inrush signals are issued as long as inrush current is detected If the 51 element picks up the tripping time is calculated from the actual fault current flowing using an integrating method of measurement The calculated tripping time...

Page 64: ...E DIAL is used instead of parameter 1208 51 TIME DIAL If parameter MANUAL CLOSE is set to 51 instant and manual close detection applies the trip is initiated as soon as the pickup conditions arrive even if the element is blocked via a binary input The same applies to 79 AR 51N inst Functions 2 2 Overcurrent Protection 50 51 50N 51N 64 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 65: ...t For a new pickup the time delay starts at zero The disk emulation evokes a dropout process timer counter is decrementing which begins after de energiza tion This process corresponds to the reset of a Ferraris disk explaining its denomination disk emulation In case several faults occur in succession the history is taken into consideration due to the inertia of the Ferraris disk and the time respo...

Page 66: ...current element is released Voltage restraint The pickup threshold of the overcurrent element depends on the voltage magnitude A lower voltage decreases the current pickup value see Figure 2 13 In the range between V VNom 1 00 to 0 25 a linear directly proportional dependence is realized and therefore the following applies spannungsabhaengigkeit des anregewertes 1 en_US Figure 2 13 Voltage influen...

Page 67: ...asuring voltage failure detection Fuse Failure Monitor The following two figures show the logic diagrams for the inverse time overcurrent protection with under voltage consideration 7sjx_logic_51 phase schleife aktiv 1 en_US Figure 2 14 Logic diagram of the voltage controlled inverse time overcurrent protection Functions 2 2 Overcurrent Protection 50 51 50N 51N SIPROTEC 4 7SJ62 64 Manual 67 C53000...

Page 68: ...iod of zero voltage e g air conditioning systems heating installations motors Thus a general increase of pickup thresholds can be avoided taking into consideration such starting conditions This dynamic pickup value changeover fuction is common to all overcurrent elements and is described in Section 2 4 Dynamic Cold Load Pickup The alternative pickup values can be set individually for each element ...

Page 69: ...locked element takes place In this case an inrush in the affected phase is recognized annunciations 1840 to 1842 and 7558 InRush Gnd Det InRush Gnd Det see Figure 2 16 and its blocking being carried out Since quantitative analysis of the harmonic components cannot be completed until a full line period has been measured pickup will generally be blocked by then Therefore assuming the inrush restrain...

Page 70: ...c The pickup annunciations of the individual phases or ground and the individual element are combined with each other in such a way that the phase information and the element that has picked up are issued 2 2 8 Functions 2 2 Overcurrent Protection 50 51 50N 51N 70 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 71: ...PU 1761 In the trip signals the element which initiated the tripping is also indicated Two phase Overcurrent Protection Only Non Directional The 2 phase overcurrent protection functionality is used in isolated or grounded systems where interaction with existing 2 phase protection equipment is required As an isolated or grounded system remains opera tional with a 1 phase ground fault this protectio...

Page 72: ...ssion grid serves internal loads of the generation station via a medium voltage bus with multiple feeders Figure 2 17 The reverse interlocking principle is based on the following Time overcurrent protection of the busbar feeder trips with a short time delay T 50 2 independent of the grading times of the feeders unless the pickup of the next load side overcurrent protection element blocks the busba...

Page 73: ...or the elements Measurement of the fundamental harmonic standard method This measurement method processes the sampled values of the current and filters in numerical order the fundamental harmonic so that the higher harmonics or transient peak currents remain largely unconsid ered Measurement of the true RMS value The current amplitude is derived from the sampled values in accordance with the defin...

Page 74: ... if their fundamental component exceeds the setting value are rendered harmless by delay times address 1203 50 2 DELAY or 1218 50 3 DELAY For motor protection the 50 2 relay element must be set smaller than the smallest phase to phase fault current and larger than the largest motor starting current Since the maximum occurring startup current is usually below 1 6 x the rated startup current even wi...

Page 75: ... minimum ground fault current If the relay is used to protect transformers or motors with large inrush currents the inrush restraint feature of 7SJ62 64 may be used for the 50N 1 relay element It can be enabled or disabled for both the phase current and the ground current in address 2201 INRUSH REST The characteristic values of the inrush restraint are listed in Subsection Inrush Restraint The set...

Page 76: ...pickup value and the setting value This means that a pickup will only occur if a current of about 1 1 times the setting value is present If Disk Emulation was selected at address 1310 51 Drop out reset will occur in accordance with the reset curve as described before The current value is set in address 1307 51N PICKUP The setting is mainly determined by the minimum anticipated ground fault current...

Page 77: ... tripping curves MofPU 1 to 1 94 MofPU 2 to 4 75 MofPU 5 to 7 75 MofPU 8 to 20 1 00 1 50 2 00 3 50 5 00 6 50 8 00 15 00 1 06 1 56 2 25 3 75 5 25 6 75 9 00 16 00 1 13 1 63 2 50 4 00 5 50 7 00 10 00 17 00 1 19 1 69 2 75 4 25 5 75 7 25 11 00 18 00 1 25 1 75 3 00 4 50 6 00 7 50 12 00 19 00 1 31 1 81 3 25 4 75 6 25 7 75 13 00 20 00 1 38 1 88 14 00 1 44 1 94 anwenderkennl 260602 kn 1 en_US Figure 2 18 U...

Page 78: ...o infinity ausloesekennl 260602 kn 1 en_US Figure 2 19 Entry and visualization of a user defined tripping characteristic in DIGSI example Inrush Restraint When applying the protection device to transformers where high inrush currents are to be expected the 7SJ62 64 can make use of an inrush restraint function for the overcurrent elements 50 1 51 50N 1 and 51N Inrush restraint is only effective and...

Page 79: ...ace but directly from a control acknowledgment switch this signal must be passed to a 7SJ62 64 binary input and configured accordingly Manual Close so that the element selected for MANUAL CLOSE can become effective The alternative Inactive means that all elements operate as per configuration even with manual close and do not get special treatment Internal Control Function If the manual close signa...

Page 80: ...tomatic reclosing function of 7SJ62 64 also provides the option to individually determine for each overcurrent element whether tripping or blocking is to be carried out instantaneously or unaffected by the AR with the set time delay see Section 2 16 Automatic Reclosing System 79 Settings Addresses which have an appended A can only be changed with DIGSI under Additional Settings The table indicates...

Page 81: ...f 1223 VOLT INFLUENCE NO Volt controll Volt restraint NO 51V Voltage Influence 1224 51V V 10 0 125 0 V 75 0 V 51V V Threshold for Release Ip 1230 51 51N 1 00 20 00 I Ip 0 01 999 00 TD 51 51N 1231 MofPU Res T Tp 0 05 0 95 I Ip 0 01 999 00 TD Multiple of Pickup T Tp 1301 FCT 50N 51N ON OFF ON 50N 51N Ground Time Overcurrent 1302 50N 2 PICKUP 1A 0 05 35 00 A 0 50 A 50N 2 Pickup 5A 0 25 175 00 A 2 50 ...

Page 82: ...0 sec 50N 3 Time Delay 1319A 50N 3 measurem Fundamental True RMS Instantaneous Fundamental 50N 3 measurement of 1320A 50N 2 measurem Fundamental True RMS Fundamental 50N 2 measurement of 1321A 50N 1 measurem Fundamental True RMS Fundamental 50N 1 measurement of 1322A 51N measurem Fundamental True RMS Fundamental 51N measurement of 1330 50N 51N 1 00 20 00 I Ip 0 01 999 00 TD 50N 51N 1331 MofPU Res ...

Page 83: ... OUT 50 51 Phase C picked up 1765 50N 51NPickedup OUT 50N 51N picked up 1767 50 3 picked up OUT 50 3 picked up 1768 50N 3 picked up OUT 50N 3 picked up 1769 50 3 TRIP OUT 50 3 TRIP 1770 50N 3 TRIP OUT 50N 3 TRIP 1787 50 3 TimeOut OUT 50 3 TimeOut 1788 50N 3 TimeOut OUT 50N 3 TimeOut 1791 50 N 51 N TRIP OUT 50 N 51 N TRIP 1800 50 2 picked up OUT 50 2 picked up 1804 50 2 TimeOut OUT 50 2 Time Out 18...

Page 84: ... 50 1 InRush picked up 7552 50N 1 InRushPU OUT 50N 1 InRush picked up 7553 51 InRushPU OUT 51 InRush picked up 7554 51N InRushPU OUT 51N InRush picked up 7556 InRush OFF OUT InRush OFF 7557 InRush BLK OUT InRush BLOCKED 7558 InRush Gnd Det OUT InRush Ground detected 7559 67 1 InRushPU OUT 67 1 InRush picked up 7560 67N 1 InRushPU OUT 67N 1 InRush picked up 7561 67 TOC InRushPU OUT 67 TOC InRush pi...

Page 85: ... protection For parallel lines or transformers supplied from a single source only directional overcurrent protection allows selective fault detection For line sections supplied from two sources or in ring operated lines the overcurrent protection has to be supplemented by the element specific directional criterion General For parallel lines or transformers supplied from a single source see Figure ...

Page 86: ...y be bypassed via a Manual Close pulse thus resulting in high speed tripping Furthermore immediate tripping may be initiated in conjunction with the automatic reclosing function cycle dependant Pickup stabilization for the 67 67N elements of the directional overcurrent protection can be accomplished by means of settable dropout times This protection comes into use in systems where intermittent fau...

Page 87: ...refore the func tion does not drop out instantaneously The trip delay times 50 2 DELAY 67 3 DELAY or 50N 2 DELAY 67N 3 DELAY continue during that time After the dropout delay time has elapsed the pickup is reported OFF and the trip delay time is reset unless the threshold 50 2 PICKUP 67 3 PICKUP or 50N 2 PICKUP 67N 3 PICKUP has been exceeded again If the threshold is exceeded again during the drop...

Page 88: ... 1 PICKUP or 67N 1 PICKUP is set which can be measured as Fundamental or True RMS Phase and ground currents are compared separately with the common setting value 67 1 PICKUP or 67N 1 PICKUP Currents above the setting values are recognized separately when fault direction is equal to the configured direction If the inrush restraint function is used either the normal pickup signals or the correspondi...

Page 89: ...d again If the threshold is exceeded again during the dropout delay time the time is canceled The trip command delay time 50 1 DELAY or 50N 1 DELAY continues in the meantime Should the threshold value be exceeded after its expiry the trip command is issued immediately If the threshold value is not exceeded at this time there will be no reaction If the threshold value is exceeded again after expiry...

Page 90: ...tection is present a pickup causes instantaneous tripping even if the element is blocked via binary input The same applies to 79 AR 67 1 instantaneous The dropout delay does only function if no inrush was detected An approaching inrush resets an already running dropout time delay Functions 2 3 Directional Overcurrent Protection 67 67N 90 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 20...

Page 91: ...t element time delay elapses For ground current element 67N TOC PICKUP the characteristic may be selected independently of the char acteristic used for phase currents Pickup values of the 67 TOC phases and 67N TOC ground current and the associated time multipliers may be set individually Each of these elements can be directional or non directional non directional from V4 81 on Dropout Behavior Whe...

Page 92: ...logic diagram for the 67 TOC relay element of the direc tional inverse time overcurrent protection of the phase currents 7sj6x_gerueberstromzeit_abh_ueberstrom_ip 150502 kn 1 en_US Figure 2 27 Logic diagram for the directional overcurrent protection 67 TOC relay element Interaction with Fuse Failure Monitor FFM False or undesired tripping can be caused by a measuring voltage that can be caused by ...

Page 93: ...termination of the fault direction for the phase directional element and the ground directional element is performed independently Basically the direction determination is performed by determining the phase angle between the fault current and a reference voltage Method of Directional Measurement For the phase directional element the fault current of the corresponding phase and the unfaulted phase ...

Page 94: ...The direction of a phase directional element is detected by means of a cross polarized voltage In a phase to ground fault the cross polarized voltage reference voltage is 90 out of phase with the fault voltages see Figure 2 28 With phase to phase faults the position of the reference voltages changes depending on the degree of collapse of the fault voltages up to 30 kurzschlussfremde spannungen fue...

Page 95: ...tor of the rotated reference voltage can be closely adjusted to the vector of the fault current in order to provide the best possible result for the direction determination Figure 2 29 clearly shows the relationship for the directional phase element based on a single phase ground fault in Phase A The fault current ΙscA follows the fault voltage by fault angle ϕsc The reference voltage in this case...

Page 96: ...nt of the reference voltage for the directional ground element also based on a single phase ground fault in phase A Contrary to the directional phase elements which work with the unfaulted voltage as reference voltage the fault voltage itself is the reference voltage for the directional ground element Depending on the connection of the voltage transformer this is the voltage 3V0 as shown in Figure...

Page 97: ...relays is not too great and when pilot wires are avail able for signal transfer via an auxiliary voltage loop For each line a separate data transfer path is required to facilitate signal transmission in each direction When implemented in a closed circuit connection disturbances in the communication line are detected and signalled with time delay The local system requires a local interlocking bus w...

Page 98: ...t equal to Definite Time only the parameters for definite time over current protection are accessible here If you select TOC IEC or TOC ANSI the inverse time characteristics is available too The superimposed directional elements 67 3 67 2 and 67 1or 67N 3 67N 2 and 67N 1apply in all these cases At address 1501 FCT 67 67 TOC directional phase overcurrent protection may be switched ON or OFF Pickup ...

Page 99: ... characteristic i e the position of the ranges forward and reverse is set for the phase direc tional elements under address 1519 ROTATION ANGLE and for the ground directional element under address 1619 ROTATION ANGLE The short circuit angle is generally inductive in a range of 30 to 60 This means that usually the default settings of 45 for the phase directional elements and 45 for the ground direc...

Page 100: ...e 90 90 0 Capacitive 45 135 45 1 Default Setting Directional Orientation Directional overcurrent protection normally operates in the direction of the protected object line trans former etc If the protection device is properly connected in accordance with one of the circuit diagrams in Appendix C Connection Examples this is the forward direction The directional orientation Forward or Reverse can be...

Page 101: ...an additional delay time and does not include the operating time measuring time dropout time If the delay time is set to the element does not trip after the pickup but the pickup condi tion is signaled If the directional 67N 2 element or 67N 3 element is not required set the pickup threshold 67N 2 PICKUP or 67N 3 PICKUP to This setting prevents tripping and the generation of a pickup indica tion D...

Page 102: ... times the setting value is present If Address 1510 67 TOC Drop out is set to Disk Emulation reset will occur in accordance with the reset curve as described in Section 2 2 Overcurrent Protection 50 51 50N 51N The current value is set in address 1507 67 TOC PICKUP The setting is mainly determined by the maximum operating current Pickup due to overload should never occur since the device in this op...

Page 103: ...ional value pairs current and reset time may be entered in address 1531 MofPU Res T Tp or 1631 I IEp Rf T TEp to represent the reset curve Entry of the value pair current and time is a multiple of the settings of the values of the addresses 1507 67 TOC PICKUP or 1607 67N TOC PICKUP and 1508 67 TIME DIAL or 1608 67N TOC T DIAL Therefore it is recommended that parameter values are initially set to 1...

Page 104: ...curves MofPU 1 bis 0 86 MofPU 0 84 bis 0 67 MofPU 0 66 bis 0 38 MofPU 0 34 bis 0 00 1 00 0 93 0 84 0 75 0 66 0 53 0 34 0 16 0 99 0 92 0 83 0 73 0 64 0 50 0 31 0 13 0 98 0 91 0 81 0 72 0 63 0 47 0 28 0 09 0 97 0 90 0 80 0 70 0 61 0 44 0 25 0 06 0 96 0 89 0 78 0 69 0 59 0 41 022 0 03 0 95 0 88 0 77 0 67 0 56 0 38 0 19 0 00 0 94 0 86 anwenderkennl 260602 kn 1 en_US Figure 2 35 Using a user defined cu...

Page 105: ...information must be allocated via CFC interlocking task level using the CMD_Information block if the internal control function is used handein 260602 kn 1 en_US Figure 2 37 Example for the generation of a manual close signal using the internal control function i i NOTE For an interaction between the automatic reclosing function 79 AR and the control function an extended CFC logic is necessary See ...

Page 106: ...Additional Settings The table indicates region specific presettings Column C configuration indicates the corresponding secon dary nominal current of the current transformer Addr Parameter C Setting Options Default Setting Comments 1501 FCT 67 67 TOC OFF ON OFF 67 67 TOC Phase Time Overcurrent 1502 67 2 PICKUP 1A 0 10 35 00 A 2 00 A 67 2 Pickup 5A 0 50 175 00 A 10 00 A 1503 67 2 DELAY 0 00 60 00 se...

Page 107: ...5 00 A A 67 3 Pickup 5A 5 00 175 00 A A 1529 67 3 DELAY 0 00 60 00 sec 0 00 sec 67 3 Time Delay 1530 67 1 00 20 00 I Ip 0 01 999 00 TD 67 1531 MofPU Res T Tp 0 05 0 95 I Ip 0 01 999 00 TD Multiple of Pickup T Tp 1532A 67 3 active always with 79 active always 67 3 active 1601 FCT 67N 67N TOC OFF ON OFF 67N 67N TOC Ground Time Overcurrent 1602 67N 2 PICKUP 1A 0 05 35 00 A 0 50 A 67N 2 Pickup 5A 0 25...

Page 108: ...2 MEASUREM Fundamental True RMS Fundamental 67N 2 measurement of 1621A 67N 1 MEASUREM Fundamental True RMS Fundamental 67N 1 measurement of 1622A 67N TOC MEASUR Fundamental True RMS Fundamental 67N TOC measurement of 1623 67N 2 Direction Forward Reverse Non Directional Forward 67N 2 Direction 1624 67N 1 Direction Forward Reverse Non Directional Forward 67N 1 Direction 1625 67N TOC Direct Forward R...

Page 109: ...rd OUT Phase C forward 2632 Phase A reverse OUT Phase A reverse 2633 Phase B reverse OUT Phase B reverse 2634 Phase C reverse OUT Phase C reverse 2635 Ground forward OUT Ground forward 2636 Ground reverse OUT Ground reverse 2637 67 1 BLOCKED OUT 67 1 is BLOCKED 2642 67 2 picked up OUT 67 2 picked up 2646 67N 2 picked up OUT 67N 2 picked up 2647 67 2 Time Out OUT 67 2 Time Out 2648 67N 2 Time Out O...

Page 110: ...t 2686 67N TOC TRIP OUT 67N TOC TRIP 2687 67N TOC Disk PU OUT 67N TOC disk emulation is ACTIVE 2691 67 67N pickedup OUT 67 67N picked up 2692 67 A picked up OUT 67 67 TOC Phase A picked up 2693 67 B picked up OUT 67 67 TOC Phase B picked up 2694 67 C picked up OUT 67 67 TOC Phase C picked up 2695 67N picked up OUT 67N 67N TOC picked up 2696 67 67N TRIP OUT 67 67N TRIP 2697 67 3 picked up OUT 67 3 ...

Page 111: ... if auto matic reclosure is ready for reclosing see also Section 2 16 Automatic Reclosing System 79 Irrespective of the setting of parameter 1702 Start Condition the release of cold load pickup may always be selected via the binary input ACTIVATE CLP Figure 2 39 shows the logic diagram for dynamic cold load pickup function If it is detected via the auxiliary contact or the current criterion that t...

Page 112: ...of the protective relay with an open circuit breaker the time delay CB Open Time is started and is processed using the normal settings Therefore when the circuit breaker is closed the normal settings are effective The following figures show the timing sequenceand the logic diagram of the dynamic cold load pickup feature zeitablaeufe der dynamischen parameterumschaltung 260602 kn 1 en_US Figure 2 3...

Page 113: ...up Depending on the condition that should initiate the cold load pickup function address 1702 Start Condi tion is set to either No Current Breaker Contact or to 79 ready Naturally the option Breaker Contact can only be selected if the device receives information regarding the switching state of the circuit breaker via at least one binary input The option 79 ready modifies dynamically the pickup th...

Page 114: ...2 50Nc 2 DELAY or 1909 50Nc 3 DELAY respectively the dynamic pickup and delay settings for the 67N 1 element are set at addresses 1903 50Nc 1 PICKUP and 1904 50Nc 1 DELAY respectively and the pickup time multiplier for IEC curves or user defined curves and time dial for ANSI curves settings for the 67N TOC element are set at addresses 1905 51Nc PICKUP 1906 51Nc T DIAL and 1907 51Nc T DIAL respecti...

Page 115: ...0 25 175 00 A 35 00 A 1902 50Nc 2 DELAY 0 00 60 00 sec 0 00 sec 50Nc 2 Time Delay 1903 50Nc 1 PICKUP 1A 0 05 35 00 A 1 50 A 50Nc 1 Pickup 5A 0 25 175 00 A 7 50 A 1904 50Nc 1 DELAY 0 00 60 00 sec 0 30 sec 50Nc 1 Time Delay 1905 51Nc PICKUP 1A 0 05 4 00 A 1 00 A 51Nc Pickup 5A 0 25 20 00 A 5 00 A 1906 51Nc T DIAL 0 05 3 20 sec 0 50 sec 51Nc Time Dial 1907 51Nc T DIAL 0 50 15 00 5 00 51Nc Time Dial 1...

Page 116: ...al 2107 67Nc TOC T DIAL 0 50 15 00 5 00 67Nc TOC Time Dial 2108 67Nc 3 PICKUP 0 25 35 00 A A 67Nc 3 Pickup 2109 67Nc 3 DELAY 0 00 60 00 sec 0 00 sec 67Nc 3 Time Delay Information List No Information Type of Informa tion Comments 1730 BLOCK CLP SP BLOCK Cold Load Pickup 1731 BLK CLP stpTim SP BLOCK Cold Load Pickup stop timer 1732 ACTIVATE CLP SP ACTIVATE Cold Load Pickup 1994 CLP OFF OUT Cold Load...

Page 117: ...value 50 1Ph 1 PICKUP or 50 1Ph 2 PICKUP and reported if this is violated After expiry of the respective delay time 50 1Ph 1 DELAY or 50 1Ph 2 DELAY the trip command is issued The two elements together form a two stage protection The dropout value is approximately 95 of the pickup value for currents greater than I 0 3 INom The current filter is bypassed if currents are extremely high in order to a...

Page 118: ...t have the same transformer ratios and approximately identical knee point voltage With 7SJ62 64 the high impedance principle is particularly well suited for detecting ground faults in grounded networks at transformers generators motors and shunt reactors Figure 2 42 shows an application example for a grounded transformer winding or a grounded motor gener ator The right hand example depicts an ungr...

Page 119: ... low ohmic shunt to the high ohmic resistor R Thus the high resistance of the resistor also has a stabilizing effect the so called resistance stabilization ueb einph hochimpedanz2 020926 rei 1 en_US Figure 2 43 Principle of ground fault protection according to the high impedance principle When a ground fault occurs in the protected zone Figure 2 43 right there is always a neutral point current ΙSP...

Page 120: ...erential protection can be used analo gously All current transformers at the overvoltage side the undervoltage side and the current transformer at the neutral point have to be connected in parallel when using auto transformers In principle this procedure can be applied to every protected object When applied as busbar protection for example the device is connected to the parallel connection of all ...

Page 121: ... also be set to the corresponding element will then not trip after pickup but the pickup is reported Special notes are given in the following for the use as high impedance unit protection and tank leakage protection Application as High impedance Protection The application as high impedance protection requires that neutral point current detection is possible in the system in addition to phase curre...

Page 122: ...Stability with High impedance Protection The stability condition is based on the following simplified assumption If there is an external fault one of the current transformers gets totally saturated The other ones will continue transmitting their partial currents In theory this is the most unfavorable case Since in practice it is also the saturated transformer which supplies current an automatic sa...

Page 123: ...2 cross section this corresponds Ra 0 75 Ω ueb einph stabilitaetslimit 1a 021026 rei 1 en_US that is 27 rated current or 21 6 kA primary Sensitivity with High impedance Protection The voltage present at the CT set is forwarded to the protective relay across a series resistor R as proportional current for evaluation The following considerations are relevant for dimensioning the resistor As already ...

Page 124: ... sufficient for the backup protection to clear the fault The thermal load of the series resistor depends on the voltage Vrms stab applying during an internal fault It is calculated according to the following formulas fohochimpvrmsstab5a 20120514 1 en_US fohochimpvrmsstab1a 20120514 1 en_US where Ik max int corresponds to the maximum fault current during an internal fault For the 5 A current transf...

Page 125: ...can be delayed via address 2707 50 1Ph 1 DELAY Normally such delay is set to 0 If a higher number of CTs is connected in parallel e g as busbar protection with several feeders the magnet izing currents of the transformers connected in parallel cannot be neglected anymore In this case the magnetizing currents at half the knee point voltage corresponds to the setting value have to be summed up These...

Page 126: ...1 00 A 2706 50 1Ph 1 PICKUP 0 003 1 500 A 0 100 A 50 1Ph 1 Pickup 2707 50 1Ph 1 DELAY 0 00 60 00 sec 0 50 sec 50 1Ph 1 Time Delay Information List No Information Type of Informa tion Comments 5951 BLK 50 1Ph SP BLOCK 50 1Ph 5952 BLK 50 1Ph 1 SP BLOCK 50 1Ph 1 5953 BLK 50 1Ph 2 SP BLOCK 50 1Ph 2 5961 50 1Ph OFF OUT 50 1Ph is OFF 5962 50 1Ph BLOCKED OUT 50 1Ph is BLOCKED 5963 50 1Ph ACTIVE OUT 50 1P...

Page 127: ...formed of this fact during configuration via address 240 VT Connect 1ph see also Section 2 26 Protection for Single phase Voltage Transformer Connection The following table indicates which voltages can be evaluated by the function The settings for this are carried out in the P System Data 1 see Section 2 1 3 2 Setting Notes Furthermore it is indicated to which value the threshold must be set All v...

Page 128: ... a settable minimum current level BkrClosed I MIN are exceeded Here the largest of the three phase currents is used When the current decreases below the minimum current setting after the circuit breaker has opened undervoltage protection drops out i i NOTE If parameter CURRENT SUPERV is set to disabled in address 5120 the device picks up immediately without measurement voltage and the undervoltage...

Page 129: ...hows a typical voltage profile during a fault for source side connection of the voltage trans formers Because full voltage is present after the circuit breaker has been opened current supervision CS described above is not necessary in this case After the voltage has dropped below the pickup setting tripping is initiated after time delay 27 1 DELAY As long as the voltage remains below the dropout s...

Page 130: ...opened BkrClosed I MIN After the voltage has dropped below the pickup setting tripping is initiated after time delay 27 1 DELAY When the circuit breaker opens voltage decreases to zero and undervoltage pickup is maintained The current value also decreases to zero so that current criterion is reset as soon as the release threshold BkrClosed I MIN is exceeded Pickup of the protection function is als...

Page 131: ... ms the protection function does not pick up Therefore no fault record is created when voltage protection is activated in a healthy system It is important to under stand however that if a low voltage condition exists on the load after the circuit breaker is closed unlike Figure 2 50 the desired pickup of the element will be delayed by 60 ms The following figure shows the logic diagram of the under...

Page 132: ...s General Voltage protection is only effective and accessible if address 150 27 59 is set to Enabled during configura tion of protection functions If this function is not required then Disabled is set 2 6 4 Functions 2 6 Voltage Protection 27 59 132 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 133: ...ase voltage allows voltage asymmetries e g caused by a ground fault to be taken into account phase to ground or to remain unconsidered phase to phase during evaluation i i NOTE During configuration of a single phase voltage transformer connection parameter 240 VT Connect 1ph not equal to NO parameters 213 VT Connect 3ph and 614 OP QUANTITY 59 are not evalu ated In this case exclusively parameters ...

Page 134: ...r 5103 27 1 PICKUP while the time delay is set at address 5106 27 1 DELAY a somewhat longer time delay Setting these elements in this way allows the undervoltage protection function to closely follow the stability behavior of the system The time settings should be selected such that tripping occurs in response to voltage dips that lead to unstable operating conditions On the other hand the time de...

Page 135: ...ply Furthermore this feature prevents an immediate general pickup of the device when the device is powered up without measurement voltage being present i i NOTE If parameter CURRENT SUPERV is set to disabled at address 5120 the device picks up immediately if the measuring circuit voltage fails and the undervoltage protection is enabled Furthermore configuration can be performed by pickup of measur...

Page 136: ... 27 SP BLOCK 27 undervoltage protection 6505 27 I SUPRVSN SP 27 Switch current supervision ON 6506 BLOCK 27 1 SP BLOCK 27 1 Undervoltage protection 6508 BLOCK 27 2 SP BLOCK 27 2 Undervoltage protection 6513 BLOCK 59 SP BLOCK 59 overvoltage protection 6530 27 OFF OUT 27 Undervoltage protection switched OFF 6531 27 BLOCKED OUT 27 Undervoltage protection is BLOCKED 6532 27 ACTIVE OUT 27 Undervoltage ...

Page 137: ...lead to negative sequence currents In addition this protection function may be used to detect interruptions short circuits and polarity prob lems with current transformers It is also useful in detecting single phase and two phase faults with fault currents lower than the maximum load currents Prerequisites The unbalanced load protection becomes effective when at least one phase current is greater ...

Page 138: ... characteristic selected When tripping time is reached a tripping command is issued The characteristic curve is illustrated in the following Figure abhaeng ausl_charakt des schieflastschutzes 260602 kn 1 en_US Figure 2 53 Inverse time characteristic for negative sequence protection Dropout for IEC Curves The element drops out when the negative sequence current decreases to approx 95 of the pickup ...

Page 139: ...e sequence protection function The protection may be blocked via a binary input This resets pickup and time elements and clears measured values When the negative sequence protection criteria are no longer satisfied i e all phase currents below 0 05 x ΙNom or at least one phase current is greater than 10 x ΙNom all pickups issued by the negative sequence protec tion function are reset 7sj80 schiefl...

Page 140: ... term load imbalance and the allowable load imbalance per unit of time this data should be used preferentially It is important to note that the manufacturer s data relate to the primary values of the machine for example the maximum permissible permanent inverse current is referred to the nominal machine current For the setting values at the protection device this infor mation is converted to the s...

Page 141: ...ince transformers transform symmetrical currents according to the transformation ratio CTR the relation ship between negative sequence currents and total fault current for phase to phase faults and phase to ground faults are valid for the transformer as long as the turns ratio CTR is taken into consideration Consider a transformer with the following data Base Transformer Rating SNomT 16 MVA Primar...

Page 142: ...are based are given in the Technical Data It must be noted that a safety factor of about 1 1 has already been included between the pickup value and the setting value when an inverse time characteristic is selected This means that a pickup will only occur if an unbalanced load of about 1 1 times the setting value is present If Disk Emulation was selected at address 4011 46 TOC RESET reset will occu...

Page 143: ...0 00 60 00 sec 0 00 sec 46 Drop Out Time Delay Information List No Information Type of Informa tion Comments 5143 BLOCK 46 SP BLOCK 46 5151 46 OFF OUT 46 switched OFF 5152 46 BLOCKED OUT 46 is BLOCKED 5153 46 ACTIVE OUT 46 is ACTIVE 5159 46 2 picked up OUT 46 2 picked up 5165 46 1 picked up OUT 46 1 picked up 5166 46 TOC pickedup OUT 46 TOC picked up 5170 46 TRIP OUT 46 TRIP 5171 46 Dsk pickedup O...

Page 144: ...eeded Calculation of the tripping time is then initiated It should be noted that this timer starts every time the motor is started This is therefore a normal operating condition that is neither indicated in the fault log nor causes the creation of a fault record Only when the locked rotor time has elapsed is the trip command issued The protection function consists of one definite time and one inve...

Page 145: ... threshold I MOTOR START At this instant the timer LOCK ROTOR TIME is started The locked rotor delay time LOCK ROTOR TIME is linked to a binary input 48 Rot locked via an AND gate If the binary input is picked up after the set locked rotor time has expired immediate tripping will take place regardless of whether the locked rotor condition occurred before during or after the timeout Logic Motor sta...

Page 146: ...ition for the switching is determined by the parameter 4106 TEMP COLD MOTOR If the motor temperature actually the rotor temperature exceeds the threshold value then a switching from cold motor to warm motor takes place see Figure 2 56 The threshold values can be derived from the permitted number of cold ncold and warm nwarm motor startups By means of the following formula an approximate limit valu...

Page 147: ...by the actual starting current under any load or voltage conditions during motor startup but not during a permissible short time overload Example Motor with the following data Rated Voltage VNom 6600 V Nominal current ΙMOTNom 126 A Startup current primary ΙSTARTUPw 624 A Long term current rating Ιmax 135 A Startup time cold condition TMax STARTUPc 15 s Startup time warm condition TMax STARTUPc 8 5...

Page 148: ... consideration of a safety margin for TEMP COLD MOTOR 25 Should the technical data of the motor make reference to four cold and two warm startups ncold 4 nwarm 2 the following limit value can be determined fo_T motorl grenzwert mangaben 1 en_US The setting value should fall below the limit value A value of 40 is recommended for that purpose i i NOTE Overload protection curves are also effective du...

Page 149: ...etermining the Rotor Overtemperature Since the rotor current cannot be measured directly the stator current must be used to generate a thermal replica of the rotor The r m s values of the currents are used for this The rotor overtemperature ΘR is calcu lated using the largest of these three phase currents It is assumed that the thermal limit values for the rotor winding are based on the manufactur...

Page 150: ...es Rotor Overload Detection If the rotor temperature exceeds 100 of the maximum temperature calculated from the thermal rotor profile there is a risk of motor damage If this threshold value is exceeded either tripping occurs or an overload message is issued The desired reaction can be determined via parameter 4311 ROTOR OVERLOAD If param eter is set to OFF rotor overload will not be detected Resta...

Page 151: ...on for the motor stop is the undershooting of a set current threshold BkrClosed I MIN This understands that the motor idle current is greater than this threshold The pickup threshold BkrClosed I MIN affects also the thermal overload protective function see Section 2 11 Thermal Overload Protection 49 While the motor is running the heating of the thermal replica is modeled with the time constant τR ...

Page 152: ...temperature of the rotor can be observed for risk assessment Blocking If the motor restart inhibit function is blocked via binary input BLOCK 66 or switched off the thermal replica of the rotor overtemperature the equilibrium time T Equal and the minimum inhibit time T MIN INHIBIT are reset Thus any blocking signal that is present or upcoming is disregarded Via another binary input 66 RM th repl t...

Page 153: ...estart inhibit is only effective and accessible if address 143 66 of Starts is set to Enabled If not required this function is set to Disabled The function can be turned ON or OFF under address 4301 FCT 66 2 8 2 2 Functions 2 8 Motor Protection SIPROTEC 4 7SJ62 64 Manual 153 C53000 G1140 C207 8 Edition 08 2016 ...

Page 154: ...ddress 4305 I MOTOR NOMINAL The number of warm starts allowed is entered at address 4306 MAX WARM STARTS and the difference COLD WARM between the number of allowable cold and warm starts is entered at address 4307 For motors without separate ventilation the reduced cooling at motor stop can be accounted for by entering the factor Kτ at STOP at address 4308 As soon as the current no longer exceeds ...

Page 155: ...default settings is generally given in the setting tables Temperature Behavior during Changing Operating States For a better understanding of the above considerations several possible operating ranges in two different operating areas will be discussed in the following paragraph Settings indicated above are to be used prevaling 3 cold and 2 warm startup attempts have resulted in the restart limit r...

Page 156: ...e falls below the temperature limit is the decisive factor for clearing the message 66 TRIP The thermal replica remains frozen while the equilibrium time expires see Figure 2 60 to the left A startup brings the machine from load operation into a temperature range just above the thermal restarting limit and the machine is stopped The minimum inhibit time and the equilibrium time are started and 66 ...

Page 157: ...d rotor quicker thus reducing possible damage to the motor and powered equipment Description Principle of Operation Figure 2 61 illustrates a typical characteristic curve of an asynchronous cage motor Nominal current is flowing at normal load If the load is increased the current flow also increases and the speed decreases Above a certain load however the motor is no longer able to adjust the speed...

Page 158: ...shold value comparison is blocked during the motor startup phase as the startup currents usually move in a size similar to the occurring currents when a rotor is locked The algorithm verifies the motor standstill according to currents and if available the message 52 a As soon as a current increase is applied after detection of the motor standstill the load jam protection is tempo rarily blocked in...

Page 159: ...o its maximum value and the respective message from the buffers can be removed Motor Standstill and Motor Startup Due to the threshold setting below the motor startup current the load jam protection during motor startup must be blocked Via parameters 212 BkrClosed I MIN the open circuit breaker is detected during current flow measurement motor standstill In this condition the load change protectio...

Page 160: ...motor against prolonged startup procedures and the consequent thermal overload of the rotor Overcurrent and high current elements for motor shutdown due to electrical faults motorbelastungsgrenze 1 en_US Figure 2 64 Example of a complete motor protection characteristic Example Motor with the following data Nominal voltage UNom 10 kV Nominal current ΙNom 436 A Long term current rating Ιmax 135 A St...

Page 161: ...rvi sion for Motors 4102 STARTUP CURRENT 1A 0 50 16 00 A 5 00 A Startup Current 5A 2 50 80 00 A 25 00 A 4103 STARTUP TIME 1 0 180 0 sec 10 0 sec Startup Time 4104 LOCK ROTOR TIME 0 5 180 0 sec 2 0 sec Permissible Locked Rotor Time 4105 STARTUP T WARM 0 5 180 0 sec 10 0 sec Startup Time for warm motor 4106 TEMP COLD MOTOR 0 80 25 Temperature limit for cold motor 4301 FCT 66 OFF ON OFF 66 Startup Co...

Page 162: ...SP 66 Mot St Cnt Reset therm memory rotor 4829 66 RM th repl OUT 66 Mot St Cnt therm memory rotor reset 4834 Rot overl TRIP OUT Rotor thermal overload TRIP 4835 Rot overl alarm OUT Rotor thermal overload alarm 6801 BLOCK 48 SP BLOCK 48 Motor Startup Time Supervision 6805 48 Rot locked SP 48 14 Mot St Time Sup Rotor locked 6811 48 OFF OUT 48 Motor Startup Time Supervision OFF 6812 48 BLOCKED OUT 48...

Page 163: ...ltage is too small one of the other phaseto phase voltages is used instead Through the use of filters and repeated measurements the frequency evaluation is free from harmonic influ ences and very accurate Overfrequency Underfrequency Frequency protection consists of four frequency elements To make protection flexible for different power system conditions theses elements can be used alternatively f...

Page 164: ...be turned ON or OFF under address 5401 FCT 81 O U By setting the parameters 5421 to 5424 the function of each of the elements 81 1 PICKUP to 81 4 PICKUP is set individually as overfrequency or underfrequency protection or set to OFF if the element is not required Minimum Voltage Address 5402 Vmin is used to set the minimum voltage Frequency protection is blocked as soon as the minimum voltage is u...

Page 165: ...N 50 Hz or 58 Hz for fN 60 Hz is permissible A frequency increase can for example occur due to a load shedding or malfunction of the speed regulation e g in an island network In this way the frequency increase protection can for example be used as over speed protection Dropout Thresholds The dropout threshold is defined via the adjustable dropout difference address 5415 DO differential It can thus...

Page 166: ... ON f ON f OFF 81 4 Over Under Frequency Protection Information List No Information Type of Informa tion Comments 5203 BLOCK 81O U SP BLOCK 81O U 5206 BLOCK 81 1 SP BLOCK 81 1 5207 BLOCK 81 2 SP BLOCK 81 2 5208 BLOCK 81 3 SP BLOCK 81 3 5209 BLOCK 81 4 SP BLOCK 81 4 5211 81 OFF OUT 81 OFF 5212 81 BLOCKED OUT 81 BLOCKED 5213 81 ACTIVE OUT 81 ACTIVE 5214 81 Under V Blk OUT 81 Under Voltage Block 5232...

Page 167: ...ge connection types that enable detection of the displacement voltage measured or calculated The Appendix provides connection examples Signal transmission in the high voltage power system requires the power system connection point and the generating facility to be connected via telecommunication cables optical fiber or copper cable Radio links GPRS or satellite transmission with signal transit tim...

Page 168: ... The release criteria for reconnection can be set The following parameters are used Threshold for the release voltage at the power system connection point Frequency deviation in positive and negative direction Reconnection release can be delayed by a settable time You also define whether the tripping of the circuit breaker at the power system connection point is included in the formation of the re...

Page 169: ...sabled At address 5501 27 Q Protection the QU protection function can be switched ON or OFF The release current is entered at address 5502 I Release The default setting is at 10 of the rated current The threshold is one of the pickup criteria for tripping At address 5503 Inrush blk you can activate the blocking when inrush has been detected 2 10 2 Functions 2 10 27 Q SIPROTEC 4 7SJ62 64 Manual 169...

Page 170: ...positive direction and at address 5525 Neg f diff in negative direction If the measured frequency is within this range this reconnection condition is satisfied Address 5526 Incl 27 Q Trip determines whether the tripping indication of the QU protection is taken into account for the reconnection release Settings Addresses which have an appended A can only be changed with DIGSI under Additional Setti...

Page 171: ... 27 Q Trip for reclo sure rel Information List No Information Type of Informa tion Comments 6401 27 Q Block SP QV Protection Blocked 6411 27 Q OFF OUT 27 Q Protection off 6412 27 Q block OUT 27 Q Protection blocked 6413 27 Q ACT OUT 27 Q Protection active 6421 27 Q Gen TRIP OUT 27 Q Protection Gen TRIP 6422 27 Q Grid TRIP OUT 27 Q Protection Grid TRIP 6423 27 Q PICKUP OUT 27 Q Protection PICKUP 64...

Page 172: ...he maximum permissible constant phase current referred to the nominal current of the protected object ΙNom Obj Nominal current of protected object formel umgebungstemperatur 260602 kn 1 en_US with Θu Measured ambient temperature or coolant temperature ΘNom Temperature at object nominal current If the ambient or coolant temperature is not measured a constant value of Θu 40 C is assumed so that Θu 0...

Page 173: ...1 3 Power System Data 1 For externally cooled motors cables and transformers the Kτ FACTOR 1 Current Limiting In order to ensure that overload protection on occurrence of high fault currents and with small time constants does not result in extremely short tripping times thereby perhaps affecting time grading of the short circuit protection the thermal replica is frozen kept constant as soon as the...

Page 174: ...m for the overload protection function 7sj6x_ueberlastschutz 150502 kn 1 en_US Figure 2 68 Logic diagram of the overload protection Functions 2 11 Thermal Overload Protection 49 174 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 175: ...oon as the current exceeds the setting value 1107 I MOTOR START Overload Parameter k factor The overload protection is set in reference values The nominal current ΙNom Obj of the protected object motor transformer cable is used as the basic current for overload protection By means of the thermal consistently permissible current Ιmax a factor kprim can be calculated formel kfaktor 260602 kn 1 en_US...

Page 176: ...u 260602 kn 1 en_US If the short term load capability is given for an interval other than one second the corresponding short term current is used in the above formula instead of the 1 second current and the result is multiplied by the given duration For example if the 0 5 second current rating is known einstellwert tau 05s 260602 kn 1 en_US It is important to note however that the longer the effec...

Page 177: ...d is blocked until the thermal replica is below the dropout threshold again Ambient or Coolant Temperature The specifications made up to now are sufficient to model the overtemperature The ambient or coolant temperature however can also be processed This has to be communicated to the device as digitalized meas ured value via the interface During configuration parameter 142 49 must be set to With a...

Page 178: ...eeded Information on how to perform the configuration is given under Recognition of Running Condition only for motors in Subsection 2 1 3 2 Setting Notes Settings Addresses which have an appended A can only be changed with DIGSI under Additional Settings The table indicates region specific presettings Column C configuration indicates the corresponding secon dary nominal current of the current tran...

Page 179: ... 1503 BLOCK 49 O L SP BLOCK 49 Overload Protection 1507 EmergencyStart SP Emergency start of motors 1511 49 O L OFF OUT 49 Overload Protection is OFF 1512 49 O L BLOCK OUT 49 Overload Protection is BLOCKED 1513 49 O L ACTIVE OUT 49 Overload Protection is ACTIVE 1515 49 O L I Alarm OUT 49 Overload Current Alarm I alarm 1516 49 O L Θ Alarm OUT 49 Overload Alarm Near Thermal Trip 1517 49 Winding O L ...

Page 180: ...es operation of the internal clock and storage of counters and messages if the auxiliary voltage fails is periodically checked for charge status If it is less than an allowed minimum voltage then the Fail Batterymessage is issued Memory Components All working memories RAMs are checked during startup If a malfunction occurs then the starting sequence is interrupted and an LED blinks During operatio...

Page 181: ...e monitoring is available subject to the following conditions The three phase currents are connected to the device address 251 A B C Gnd The ground current of the current transformer neutral point is connected to the fourth current input Ι4 Holmgreen connection This is communicated to the device in the Power System Data 1 via address 280 YES The fourth current input is normally designed for a Ι4 t...

Page 182: ...No 183 to Error Board 7 FNo 189 are initiated The module number corresponds to the address number e g Error Board 3 address 3 C I O11 For the assign ment of addresses to modules as well as slot positions of the modules in the device please refer to the following table Table 2 12 Assignment of the Addresses to the Slot Positions in the Device view of the open housing Device Housing Module Slot Posi...

Page 183: ...e warning group indication 160 As increased offset values impair the measurements we recommend sending the device to the OEM plant for corrective action should this indication persist The Offset monitoring can be blocked via the binary input signal Blk offset s No 17565 Monitoring of the Transformer Circuits Open circuits or short circuits in the secondary circuits of the current and voltage trans...

Page 184: ...ied average values and checks the balance of their absolute values The smallest phase voltage is compared with the largest phase voltage Asymmetry is recognized if Vmin Vmax BAL FACTOR V as long as Vmax BALANCE V LIMIT Where Vmax is the highest of the three voltages and Vmin the smallest The symmetry factor BAL FACTOR V address 8103 represents the allowable asymmetry of the conductor voltages whil...

Page 185: ... function referred to as Fuse Failure Monitor FFM only oper ates if 3 phase to ground voltages are connected With phase to phase voltages and UN or single phase connection the function is disabled Purpose of the Fuse Failure Monitor In case of a measuring voltage failure caused by a fault or a broken wire in the voltage transformer secondary system a zero voltage can be simulated to individual mea...

Page 186: ...are blocked In order to prevent overfunctioning of the FFM the phase currents are also checked If at least one phase current lies above the pickup threshold of 5303 FUSE FAIL RESID it can be assumed that the zero current created by a fault will equally exceed this threshold In order to immediately detect an existing fault after switching in the following applies If a ground current ΙN is detected ...

Page 187: ... FAIL MON The logic diagram on the functioning in an isolated system and for 3 phase fuse failure is shown in Figure 2 74 The following is a description of the principles for 1 phase 2 phase and 3 phase faults in a secon dary voltage transformer system If this part of the FFM logic picks up the internal signal Alarm FFM is gener ated The processing of this signal is shown in Figure 2 73 i i NOTE I...

Page 188: ... or two phase voltage failure however without influencing the current This enables a clear distinction from asymmetries impressed by the power system If the negative sequence system is related to the current positive sequence system the following rules apply to the Fault free Case u2 u1 fehlerfreier fall 020828 ho 1 en_US If a fault occurs in the voltage transformer secondary system the following ...

Page 189: ...ry system can be concluded The jump detec tion is used for this purpose The sensitivity of the jump detection for current can be increased via parameter FFM Idiff 3ph Broken Wire Monitoring of Voltage Transformer Circuits Requirements This function is only available in device version World or Chinese Ordering Information Pos 10 B or K as it is only used in certain regions Furthermore the measureme...

Page 190: ...determines the limit voltage phase to phase above which the voltage symmetry monitor is effective Address 8103 BAL FACTOR V is the associated symmetry factor that is the slope of the symmetry characteristic curve In address 8110 T BAL V LIMIT you set the delay time of fault message no 167 Fail V balance Address 8104 BALANCE I LIMIT determines the limit current above which the current symmetry moni...

Page 191: ... The FFM picks up if the ground voltage VN is higher than the set limit value under address 5302 FUSE FAIL 3Vo and if the ground current IN lies below the set limit value under address 5303 FUSE FAIL RESID In order to detect a three phase failure the progress in time of current and voltage is monitored If the voltage sinks below the threshold value without a change in the current value a three pha...

Page 192: ...nce Monitoring 5A 0 50 5 00 A 2 50 A 8105 BAL FACTOR I 0 10 0 90 0 50 Balance Factor for Current Monitor 8106 Σ I THRESHOLD 1A 0 05 2 00 A 0 10 A Summated Current Moni toring Threshold 5A 0 25 10 00 A 0 50 A 8107 Σ I FACTOR 0 00 0 95 0 10 Summated Current Moni toring Factor 8109 FAST Σ i MONIT OFF ON ON Fast Summated Current Monitoring 8110A T BAL V LIMIT 0 100 sec 5 sec T Balance Factor for Volta...

Page 193: ...ted supervision type then a message to this effect is generated 74TC ProgFail Applications When using two binary inputs malfunctions in the trip circuit can be detected under all circuit breaker conditions When only one binary input is used malfunctions in the circuit breaker itself cannot be detected Prerequisites A requirement for the use of trip circuit supervision is that the control voltage f...

Page 194: ...rupted a short circuit exists in the trip circuit a loss of battery voltage occurs or malfunctions occur with the circuit breaker mechanism Therefore it is used as supervision criterion Table 2 13 Condition table for binary inputs depending on RTC and CB position No Trip contact Circuit breaker 52a Contact 52b Contact BI 1 BI 2 1 Open Closed Closed Open H L 2 Open Open Open Closed H H 3 Closed Clo...

Page 195: ...uxiliary contact Only as long as the trip contact is closed the binary input is short circuited and thereby deactivated logical condition L If the binary input is continuously deactivated during operation this leads to the conclusion that there is an interruption in the trip circuit or loss of control voltage As the trip circuit supervision does not operate during system faults the closed trip con...

Page 196: ...on is delayed The time delay is set under address 8202 Alarm Delay Supervision with One Binary Input Note When using only one binary input BI for the trip circuit monitor malfunctions such as interruption of the trip circuit or loss of battery voltage are detected in general but trip circuit failures while a trip command is active cannot be detected Therefore the measurement must take place over a...

Page 197: ... service The operational readiness NC contact operates to indicate the device is malfunctioning Also the red LED ERROR lights up on the front cover if the internal auxiliary voltage is present and the green RUN LED goes out If the internal auxiliary voltage fails all LEDs are dark Table 2 14 provides a summary of the monitoring functions and the malfunction responses of the relay Table 2 14 Summar...

Page 198: ...nal auxiliary voltage 5 V Internal hardware Device shutdown Error 5V 146 LED ERROR DOK2 drops out Offset monitoring Internal hardware Device shutdown Error Offset 191 DOK2 drops out Internal supply voltages Internal hardware Device shutdown Error PwrSupply 147 LED ERROR DOK2 drops out Current sum Internal measured value acquisition Device shutdown Failure Σ I 162 DOK2 drops out Current symmetry Ex...

Page 199: ...own 2 DOK Device Okay Ready for service relay drops off protection and control functions are blocked Group Alarms Certain messages of the monitoring functions are already combined to group alarms A listing of the group alarms and their composition is given in the Appendix F 4 Group Alarms In this case it must be noted that message 160 Alarm Sum Event is only issued when the measured value monitori...

Page 200: ...t voltage V0 can be directly applied to the device or the summary voltage 3 V0 can be calculated by the device based on the three phase to ground voltages In the latter case the three voltage inputs must be connected to voltage transformers in a grounded wye configuration see also address 213 VT Connect 3ph in Subsection 2 1 3 Power System Data 1 If the device is only provided with phase to phase ...

Page 201: ...ted with either a user defined characteristic 51Ns PICKUP and 51NsTIME DIAL or an inverse time characteristic according to IEC or ANSI standards Additionally a current element with logarithmic inverse characteristic or logarithmic inverse characteristic with knee point is implemented The characteristics of these current elements can be configured Each of these elements may be directional or non di...

Page 202: ... is possible e g to increase sensitivity in the resistive inductive range with a rotation of 45 or in case of electric machines connected to the busbar of an ungrounded power system in the resistive capacitive range with a rotation of 45 see the following Figure Furthermore the directional limit lines may be rotated by 90 to determine ground faults and their direction in isolated systems richtungs...

Page 203: ...ding up active and reactive power components The forward and reverse zone can be reduced at its boundaries at address 3160 α1 red dir area and address 3161 α2 red dir area see Figure 2 82 Logic The following figure illustrates the activation criteria of the sensitive ground fault protection The operational mode of the ground fault detection can be set under address 3101 If set to ON tripping is po...

Page 204: ...is Vgnd AND INs the V0 element must have picked up also for non directional mode However if a direction is programmed the current element must be picked up and the direction determina tion results must be present to generate a message Once again a condition for valid direction determination is that the voltage element V0 be picked up Parameter PU CRITERIA specifies whether a fault is generated by ...

Page 205: ...os sin 20061206 1 en_US Figure 2 85 Logic diagram of the V0 element for cos φ sin φ measurement Functions 2 13 Ground Fault Protection 64 67N s 50N s 51N s SIPROTEC 4 7SJ62 64 Manual 205 C53000 G1140 C207 8 Edition 08 2016 ...

Page 206: ...nt Voltage Element The voltage element relies on a pickup initiated by the displacement voltage V0 or 3 V0 Additionally the faulty phase is determined The displacement voltage V0 can be directly applied to the device or the summary 2 13 2 Functions 2 13 Ground Fault Protection 64 67N s 50N s 51N s 206 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 207: ...dividual phase to ground voltages are measured Of course this is only possible if three phase to ground voltages are obtained from voltage transformers connected in a grounded wye configuration If the voltage magnitude for any given phase is below the setting value VPh min that phase is detected as the grounded phase as long as the remaining phase to ground voltages are simultaneously above the se...

Page 208: ...0 φ characteristic Logic The following figure illustrates the activation criteria of the sensitive ground fault protection The operational mode of the ground fault detection can be set under address 3101 If set to ON tripping is possible and a fault log is generated If set to ON with GF log tripping is possible a fault log and a ground fault log are generated If set to Alarm Only tripping is not p...

Page 209: ...upport the commissioning a message is issued if the current and voltage threshold of an element is exceeded but the ground fault phasor is not inside of the trip range 7sj80 aktiv empf erdfehler 20061218 1 en_US Figure 2 89 Activation of the sensitive ground fault detection for V0 I0 ϕ measurement Functions 2 13 Ground Fault Protection 64 67N s 50N s 51N s SIPROTEC 4 7SJ62 64 Manual 209 C53000 G11...

Page 210: ...e u0 i0 mess 20081112 1 en_US Figure 2 90 Logic diagram during V0 Ι0 φ measurement part 1 Functions 2 13 Ground Fault Protection 64 67N s 50N s 51N s 210 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 211: ...lty cables a clear forward decision is made whereas in other feeders either reverse direction is sent back or no measurement is carried out in case ground current is too low Definitely the faulty line can be determined clearly erdschlussortung im strahlennetz 260602 kn 1 en_US Figure 2 92 Location of ground faults in a radial network In meshed or looped systems the measuring points of the faulty l...

Page 212: ...e direction is set at address 130 S Gnd F Dir Ch It is optional to select either the standard measurement method cos φ sin φ or the V0 I0 φ mea with one sector charac teristic At address 3101 Sens Gnd Fault the function ON or OFF can be set to either ON with GF log or Alarm Only If settings ON and ON with GF log are applied tripping is also possible otherwise a fault log is created A ground fault ...

Page 213: ... the measurement method cos φ sin φ The type of IEC characteristic can be selected under address 3144 51Ns IEC CURVE Setting options that can ve selected are Normal Inverse Very Inverse Extremely Inv and Long Inverse The type of ANSI characteristic can be selected under address 3145 51Ns ANSI CURVE Setting options that can be selected are Very Inverse Inverse Short Inverse Long Inverse Moderately ...

Page 214: ...D 3140 51Ns T min and 3141 51Ns T max 51Ns T min and 51Ns T max deter mine the range of the tripping time whereby 51Ns T max of current threshold 51Ns PICKUP and 51Ns T min of current threshold 51Ns I T min are assigned In configuration with knee point 51Ns T knee the tripping time is determined at transition of the two curve sections with different slopes The transition point is defined by curren...

Page 215: ...e protective functions will occur Up to 20 value pairs current and time may be entered at address 3131 M of PU TD The device then approximates the characteristic using linear interpolation The following must be observed The value pairs should be entered in increasing sequence If desired fewer than 20 pairs can be entered In most cases about 10 pairs is sufficient to define the characteristic accur...

Page 216: ...m expected operational phase to ground voltage but less than the minimum expected operational phase to phase voltage For VNom 100 V approxi mately 75 V is a typical setting These settings have no significance in a grounded system Displacement Voltage Element Vo The displacement voltage 64 1 VGND address 3108 or 3109 or 64 1 VGND address 3110 is used to pick up ground fault detection At the same ti...

Page 217: ... VGND 40 V the following applies when switching to primary values beispiel 3u0 48kv 130503 kn 1 en_US With regard to a ground fault in a ungrounded or resonant grounded system nearly the entire displacement voltage appears at the device terminals therefore the pickup setting is not critical and typically lies between 30 V and 60 V for 64 1 VGND with a standard V0 connection or 50 V and 100 V for 6...

Page 218: ...ers especially in the Holmgreen connection If direction determination is used in conjunction with one of the current elements discussed above 50Ns 1 PICKUP addresses 3117 ff or 51Ns PICKUP addresses 3119 ff it is sensible to select a value for address RELEASE DIRECT that is lower than or equal to the above pickup value A corresponding message reverse forward or undefined is issued upon direction d...

Page 219: ...t setting of 2 this corresponds to the behavior of versions without this setting option In a grounded system in feeders with very high capacitive current it can be reasonable to set a slightly larger angle α1 to prevent erroneous pickup due to transformer and algorithm tolerances Direction Determination for V0 I0 ϕ Measurement With the minimum voltage 50Ns 2 Vmin address 3150 and the level of the ...

Page 220: ... occurrence of a ground fault is more difficult since the low residual wattmetric current for measurement is usually dwarfed by a reactive current be it capacitive or inductive which is much higher Therefore depending on the system configuration and the posi tion of the arc compensating coil the total ground current supplied to the device may vary considerably in its values with regard to magnitud...

Page 221: ...gle Error 3102 CT Err I1 1A 0 05 35 00 A 1 00 A Current I1 for CT Angle Error 5A 0 25 175 00 A 5 00 A 3103 CT Err F1 0 0 5 0 0 0 CT Angle Error at I1 3104 CT Err I2 0 001 1 600 A 1 000 A Current I2 for CT Angle Error 3104 CT Err I2 1A 0 05 35 00 A 10 00 A Current I2 for CT Angle Error 5A 0 25 175 00 A 50 00 A 3105 CT Err F2 0 0 5 0 0 0 CT Angle Error at I2 3106 VPH MIN 10 100 V 40 V L Gnd Voltage ...

Page 222: ...333 A 51Ns Current at const Time Delay T min 3127 51Ns I T min 1A 0 05 20 00 A 15 00 A 51Ns Current at const Time Delay T min 5A 0 25 100 00 A 75 00 A 3128 51Ns I T knee 0 003 0 650 A 0 040 A 51Ns Current at Knee Point 3128 51Ns I T knee 1A 0 05 17 00 A 5 00 A 51Ns Current at Knee Point 5A 0 25 85 00 A 25 00 A 3129 51Ns T knee 0 20 100 00 sec 23 60 sec 51Ns Time Delay at Knee Point 3130 PU CRITERI...

Page 223: ...e delta phi 3160 α1 red dir area 1 15 2 Alpha1 reduction direc tional area 3161 α2 red dir area 1 15 2 Alpha2 reduction direc tional area Information List No Information Type of Informa tion Comments 1201 BLOCK 64 SP BLOCK 64 1202 BLOCK 50Ns 2 SP BLOCK 50Ns 2 1203 BLOCK 50Ns 1 SP BLOCK 50Ns 1 1204 BLOCK 51Ns SP BLOCK 51Ns 1207 BLK 50Ns 67Ns SP BLOCK 50Ns 67Ns 1211 50Ns 67Ns OFF OUT 50Ns 67Ns is OF...

Page 224: ... picked up in Ph C 1276 SensGnd Forward OUT Sensitive Gnd fault in forward direction 1277 SensGnd Reverse OUT Sensitive Gnd fault in reverse direction 1278 SensGnd undef OUT Sensitive Gnd fault direction undefined 16029 51Ns BLK PaErr OUT Sens gnd flt 51Ns BLOCKED Setting Error 16030 φ 3Vo INs VI Angle between 3Vo and INsens 16034 50Ns 1n TRrange OUT 50Ns 1 not in tripping range 16035 50Ns 2n TRra...

Page 225: ...for the direct component since both factors contribute to the thermal load Pickup Tripping If the pickup value Iie is exceeded the pickup indication IIE Fault det see Figure 2 98 is generated The pickups are also counted when the counter content reaches the value of parameter Nos det the indi cation Intermitt EF is output A stabilized pickup is obtained by prolonging the pickup indication IIE Faul...

Page 226: ... fault protection cooperation with the breaker failure protection is not sensible Therefore this function is not activated by the intermittent ground fault protection Logic Diagram The following figure shows the logic diagram for the intermittent ground fault protection function 7sj6x_intermit_erdfehler 150502 kn 1 en_US Figure 2 98 Logic diagram of the intermittent ground fault protection princip...

Page 227: ...cked up 7562 67N TOCInRushPU 67N TOC InRush picked up 7565 Ia InRush PU Phase A InRush picked up 7566 Ib InRush PU Phase B InRush picked up 7567 Ic InRush PU Phase C InRush picked up 7564 Gnd InRush PU ground InRush picked up Table 2 17 shows all messages subject to a restraint mechanism avoiding a message burst during an intermit tent ground fault Table 2 17 Buffered Messages FNo Message Descript...

Page 228: ...during an intermittent ground fault are not affected by this mechanism Among others this includes the pickup and TRIP commands of the following protective functions Breaker failure protection Overload protection Frequency protection Voltage protection QU protection The pickup signals of these functions will still be logged immediately A TRIP command of one of these protec tive functions will cause...

Page 229: ... healthy operation and the protection resumes normal status is configured to T reset at address 3305 selektivitaetskrit intermitt erdfehler 120902 oz 1 en_US Figure 2 99 Example of selectivity criteria of the intermittent ground fault protection Address 3306 Nos det specifies the number of pickups after which a ground fault is considered intermit tent Settings The table indicates region specific p...

Page 230: ...5 IIE stab Flt OUT Interm E F stab detection 6926 IIE Flt det FE OUT Interm E F det stage Iie f Flt ev Prot 6927 Intermitt EF OUT Interm E F detected 6928 IEF Tsum exp OUT Counter of det times elapsed 6929 IEF Tres run OUT Interm E F reset time running 6930 IEF Trip OUT Interm E F trip 6931 Iie In VI Max RMS current value of fault 6932 Nos IIE VI No of detections by stage Iie 2 14 4 Functions 2 14...

Page 231: ... ground faults The func tion described here evaluates specifically the ground current pulses and puts them into relation with the displacement voltage to determine the direction Applications Directional protection against intermittent ground faults which occur e g in cables due to poor insula tion or water ingress in cable joints Description Activating the Function The function is only available i...

Page 232: ...e voltage at the device terminals It is not affected by parameter Vph Vdelta address 206 Fault Log Ground Fault Log Fault Recording Parameter Dir Interm EF allows you to define the type of fault handling and fault logging If set to ON tripping is possible and a fault log is generated If set to ON with ON with GF log tripping is possible a fault log and a ground fault log are generated If set to Al...

Page 233: ...ionship The fault direction forward or reverse is derived from this comparison Each detected ignition pulse receives a direction information If no clear direction determina tion is possible the direction information pertaining to the pulse is undefined The direction results of the recurring ignition pulses are counted and are available as value indication if their value is different than zero Pick...

Page 234: ... of the protection functions at address 134 Dir Interm EF defines whether the directional intermittent ground fault protection is Enabled Disabled At address 3401 Dir Interm EF the directional ground fault protection is switched on or off The following setting options are available ON enables the function with tripping and fault record log ON with GF log enables the function with tripping fault re...

Page 235: ...d measured 3V0 calcu lated 3406 Pickup with Vgnd 3V0 with oper dir with Vgnd 3V0 Pickup of the function Information List No Information Type of Informa tion Comments 6951 dIEF block SP Block directional interm E F prot 6961 dIEF OFF OUT Dir Interm E F prot is switched off 6962 dIEF blocked OUT Dir Interm E F prot is blocked 6963 dIEF active OUT Dir Interm E F prot is active 6972 dIEF pick up OUT d...

Page 236: ...ection For this application a signal exchange must occur between 7SJ62 64 and the external protection device via binary inputs and outputs It is also possible to allow the relay 7SJ62 64 to work in conjunction with an external reclosing device The automatic reclosure system can also operate in interaction with the integrated synchronization func tion or with an external synchrocheck Since the auto...

Page 237: ...f a timing diagram showing for two unsuccessful reclosing shots with no additional reclosing of the circuit breaker The number of reclose commands initiated by the automatic reclosure function are counted A statistical counter is available for this purpose for the first and all subsequent reclosing commands Functions 2 16 Automatic Reclosing System 79 SIPROTEC 4 7SJ62 64 Manual 237 C53000 G1140 C2...

Page 238: ...ectional start Start other 50 1 67 1 Negative Sequence Protection 46 50N 1 67N 1 BINARY INPUT 50 2 67 2 50 3 67 3 50N 2 67N 2 50N 3 67N 3 51 67 TOC 51N 67N TOC 67Ns 1 67Ns 2 67Ns TOC On initiation the automatic reclosure function is informed that a trip command was issued and the respective reclosing program is now being executed The binary input messages 2715 Start 79 Gnd and 2716 Start 79 Ph for...

Page 239: ...round or only ground have picked up This program can also be started via a binary input The multiple phase fault phase fault reclosing program applies to all other cases That is when elements associated with two or more phases pick up with or without the pickup of ground elements such as negative sequence elements This program can be started via a binary input as well The reclosure program evaluat...

Page 240: ... be set differently for each of the two reclosing programs The dead time intervals preceding the fifth reclosing attempts will be equal to the dead time interval that precedes the fourth reclosing attempt If one of the reclosing attempts is successful i e the fault disappeared after reclosure the restraint time expires and the automatic reclosing function is reset The fault is cleared If none of t...

Page 241: ...g period T DEAD DELAY for the delay of the dead time initiation by binary inputs expires without binary input 79 DT St Delay having been disabled during this time period The action time has elapsed without a TRIP command being issued Each TRIP command that occurs after the action time has expired and before the picked up element drops out will initiate the dynamic blocking indicated by 79 Tact exp...

Page 242: ...re program If only the binary input 4601 52 a is allocated the circuit breaker is considered open if the binary input is not active If the binary input gets inactive while no trip command of any function applies the auto matic reclosure function is blocked The blocking will be of static nature if the automatic reclosure func tion is in normal state at this time If the automatic reclosing function ...

Page 243: ...s a breaker failure and the automatic reclosure function is blocked dynamically If parameter T Start MONITOR is set to the start monitoring is disabled Controlling Protection Elements Depending on the reclosing cycle it is possible to control elements of the directional and non directional over current protection by means of the automatic reclosure system Protective Elements Control There are thre...

Page 244: ...ements 50 1 or 50N 1 according to the grading coordination chart of the system giving priority to selectivity concerns Addresses 7202 bef 1 Cy 50 2 7214 bef 2 Cy 50 2 and 7203 bef 1 Cy 50N 2 und 7215 bef 2 Cy 50N 2 are set to instant T 0 to enable the elements after the first reclosing Addresses 7226 bef 3 Cy 50 2 and 7227 bef 3 Cy 50N 2 however are set to blocked T to ensure that elements 50 2 an...

Page 245: ...protected If the fault continues to exist a second reclosing cycle is performed in the same way High speed element 50 2 is now blocked at relay protecting Feeder 3 If the fault still remains only the 50 1 element continues to be active in Feeder 3 which however overgrades the fuse with a time delay of 0 4 s After the fuse operated to clear the fault the series connected devices drop out If the fus...

Page 246: ...er see below during multiple reclosing e g because of missing auxiliary contacts and information on the circuit breaker ready status In this case the restraint time should be longer than the time required for the circuit breaker mechanism to be ready If a dynamic blocking of the automatic reclosing function was initiated then reclosing functions remain blocked until the cause of the blocking has b...

Page 247: ...of T ACTION address 7117 the automatic reclosure function will be blocked dynamically The trip time of inverse tripping characteristics is considerably determined by the fault location or fault resistance The action time prevents reclosing in case of far remote or high resistance faults with long tripping time Trip commands of protective functions which are not config ured as starter do not affect...

Page 248: ...nally one of the four synchronization groups must be selected via parameter 7138 Internal SYNC The synchronization conditions for automatic reclosure are are thereby specified In that case the selected synchronization group defines the switchgear component to be used usually the circuit breaker 52Breaker The defined switch gear component and the one specified at 7137 Cmd via control must be identi...

Page 249: ... Standard values are 0 3 s to 0 6 s In radial systems longer dead times are allowed Cyclic Control of Protective Functions via Automatic Reclosure The addresses 7200 to7211 and 7248 7249 7256 7257 and 7175 to 7177 allow the AR to control the cycle of the different protection functions This enables any protection elements to be blocked selectively set to operate instantaneously or according to the ...

Page 250: ...pickup of the 50 1 50N 1 elements drops out without a trip command being issued by a protection function starting the automatic reclosing function The parameters at addresses 7200 to 7263 see paragraphs below at Start and Blocking of Automatic Reclosing by Protection Functions and Controlling Directional Non Directional Overcurrent Protec tion Elements via Cold Load Pickup can thus be set to deter...

Page 251: ...00 sec 3 00 sec 79 Auto Reclosing reset time 7108 SAFETY 79 ready 0 01 320 00 sec 0 50 sec Safety Time until 79 is ready 7113 CHECK CB No check Chk each cycle No check Check circuit breaker before AR 7114 T Start MONITOR 0 01 320 00 sec 0 50 sec AR start signal monitoring time 7115 CB TIME OUT 0 10 320 00 sec 3 00 sec Circuit Breaker CB Supervision Time 7116 Max DEAD EXT 0 50 1800 00 sec 100 00 se...

Page 252: ...1N 7156 67 1 No influence Starts 79 Stops 79 No influence 67 1 7157 67N 1 No influence Starts 79 Stops 79 No influence 67N 1 7158 67 2 No influence Starts 79 Stops 79 No influence 67 2 7159 67N 2 No influence Starts 79 Stops 79 No influence 67N 2 7160 67 TOC No influence Starts 79 Stops 79 No influence 67 TOC 7161 67N TOC No influence Starts 79 Stops 79 No influence 67N TOC 7163 46 No influence St...

Page 253: ...instant T 0 blocked T Set value T T before 1 Cycle 67Ns 2 7177 bef 1Cy 67NsTOC Set value T T instant T 0 blocked T Set value T T before 1 Cycle 67Ns TOC 7178 bef 2 Cy 67Ns 1 Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67Ns 1 7179 bef 2 Cy 67Ns 2 Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67Ns 2 7180 bef 2Cy 67NsTOC Set value T T instant T 0 blocked T Set ...

Page 254: ... Cy 51 Set value T T instant T 0 blocked T Set value T T before 1 Cycle 51 7205 bef 1 Cy 51N Set value T T instant T 0 blocked T Set value T T before 1 Cycle 51N 7206 bef 1 Cy 67 1 Set value T T instant T 0 blocked T Set value T T before 1 Cycle 67 1 7207 bef 1 Cy 67N 1 Set value T T instant T 0 blocked T Set value T T before 1 Cycle 67N 1 7208 bef 1 Cy 67 2 Set value T T instant T 0 blocked T Set...

Page 255: ...t value T T instant T 0 blocked T Set value T T before 2 Cycle 67 2 7221 bef 2 Cy 67N 2 Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67N 2 7222 bef 2 Cy 67 TOC Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67 TOC 7223 bef 2 Cy 67NTOC Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67N TOC 7224 bef 3 Cy 50 1 Set value T T instant T 0 blocked T...

Page 256: ... Cy 50 1 Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50 1 7237 bef 4 Cy 50N 1 Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50N 1 7238 bef 4 Cy 50 2 Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50 2 7239 bef 4 Cy 50N 2 Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50N 2 7240 bef 4 Cy 51 Set value T T instant T 0 blocked...

Page 257: ...t value T T instant T 0 blocked T Set value T T before 3 Cycle 50 3 7253 bef 3 Cy 50N 3 Set value T T instant T 0 blocked T Set value T T before 3 Cycle 50N 3 7254 bef 4 Cy 50 3 Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50 3 7255 bef 4 Cy 50N 3 Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50N 3 7256 bef 1 Cy 67 3 Set value T T instant T 0 blocked T Set va...

Page 258: ... DT St Delay SP 79 Dead Time Start Delay 2781 79 OFF OUT 79 Auto recloser is switched OFF 2782 79 ON IntSP 79 Auto recloser is switched ON 2784 79 is NOT ready OUT 79 Auto recloser is NOT ready 2785 79 DynBlock OUT 79 Auto reclose is dynamically BLOCKED 2788 79 T CBreadyExp OUT 79 CB ready monitoring window expired 2801 79 in progress OUT 79 in progress 2808 79 BLK CB open OUT 79 CB open with no t...

Page 259: ...one Sequencing is active 2884 ZSC ON OUT Zone sequence coordination switched ON 2885 ZSC OFF OUT Zone sequence coordination switched OFF 2889 79 1 CycZoneRel OUT 79 1st cycle zone extension release 2890 79 2 CycZoneRel OUT 79 2nd cycle zone extension release 2891 79 3 CycZoneRel OUT 79 3rd cycle zone extension release 2892 79 4 CycZoneRel OUT 79 4th cycle zone extension release 2899 79 CloseReques...

Page 260: ...ed at the same time directional or nondirectional Fault Location Determination The measurement principle of the fault locator is based on the calculation of impedances Sampled value pairs of short circuit current and short circuit voltage are stored in a buffer at a sampling rate of 1 16 cycle shortly after the trip command At that time even with very fast circuit breakers no errors in the measure...

Page 261: ...The system can distinguish between up to three different line types When configuring this line data please note that the different tabs for setting the line sections will only be displayed if more than one line section has been configured under the functional scope address 181 The parameters for a line section are entered in the Setting tab Setting Notes General The fault location is only enabled ...

Page 262: ...ormation List No Information Type of Informa tion Comments 1106 Start Flt Loc SP Start Fault Locator 1114 Rpri VI Flt Locator primary RESISTANCE 1115 Xpri VI Flt Locator primary REACTANCE 1117 Rsec VI Flt Locator secondary RESISTANCE 1118 Xsec VI Flt Locator secondary REACTANCE 1119 dist VI Flt Locator Distance to fault 1120 d VI Flt Locator Distance to fault 1122 dist VI Flt Locator Distance to f...

Page 263: ... criteria for breaker failure detection Check whether the current flow has effectively disappeared after a tripping command was issued Evaluate the circuit breaker s auxiliary contacts The criteria used to determine if the circuit breaker has operated are selectable and also depend on the protec tion function that initiated the breaker failure function On tripping without fault current e g via vol...

Page 264: ...o detect ground faults more quickly the threshold value for the ground current can also be used for checking the plausibility of the phase currents This function is activated via binary input 50BFactiv 3I0 see Figure 2 109 The ground current IN 3 Ι0 is preferably used as plausibility current Via the parameters 613 you decide whether the measured Ignd measured or the calculated 3I0 calcul values ar...

Page 265: ...gram for breaker failure protection monitoring of the circuit breaker auxiliary contacts Logic The entire breaker failure protection function may be turned on or off or it can be blocked dynamically via binary inputs If breaker failure protection is initiated an alarm message is generated With the initiation two setable delay times are started One delay time can be used to repeat the trip command ...

Page 266: ...abled considers the three phase currents for total current monitoring Setting enabled w 3I0 additionally evaluates the ground current or the negative sequence system when only one phase current occurs If this function is not required then Disabled is set The function can be set to ON or OFF under address 7001 FCT 50BF 2 18 2 Functions 2 18 Breaker Failure Protection 50BF 266 SIPROTEC 4 7SJ62 64 Ma...

Page 267: ...me of the external start Figure 2 112 illustrates the time sequences in an example abl bei norm fehlerkllaer u bei lsvs 20061220 1 en_US Figure 2 112 Time sequence example for normal clearance of a fault and for circuit breaker failure with single element breaker failure protection Two Element Breaker Failure Protection In two element breaker failure protection the trip command is output again to ...

Page 268: ...ay lead to extended dropout times if extremely high currents are switched off Via binary input 1404 50BFactiv 3I0 you can activate the threshold value 50BF PICKUP IE also for checking the plausibility of the phase currents Settings The table indicates region specific presettings Column C configuration indicates the corresponding secon dary nominal current of the current transformer Addr Parameter ...

Page 269: ...1452 50BF BLOCK OUT 50BF is BLOCKED 1453 50BF ACTIVE OUT 50BF is ACTIVE 1456 50BF int Pickup OUT 50BF internal PICKUP 1457 50BF ext Pickup OUT 50BF external PICKUP 1471 50BF TRIP OUT 50BF TRIP 1480 50BF int TRIP OUT 50BF internal TRIP 1481 50BF ext TRIP OUT 50BF external TRIP 1494 50BF TRIP 2 OUT 50BF TRIP 2 2 18 4 Functions 2 18 Breaker Failure Protection 50BF SIPROTEC 4 7SJ62 64 Manual 269 C5300...

Page 270: ...overcurrent protec tion Thermal overload protec tion 50 50G X X 3Ι0 Zero sequence system Time overcurrent protec tion ground 50N X Ι1 Positive sequence component X Ι2 Negative sequence component Negative sequence protec tion 46 X Ι2 Ι1 Positive negative sequence component ratio X Frequency f Frequency Frequency protection 81U O without phase reference df dt Frequency change Frequency change protec...

Page 271: ...lows you to specify whether the protection function is blocked if the meas ured power frequency is outside the operating range of the function 25 Hz to 70 Hz Operating Mode Measured Quantity Measurement Method The flexible function can be tailored to assume a specific protective function for a concrete application in parameters OPERRAT MODE MEAS QUANTITY MEAS METHOD and PICKUP WITH Parameter OPERR...

Page 272: ...o 235 2121 00 picked up is reported If the pickup delay is set to zero the pickup will occur simultaneously with the detection of the threshold violation If the function is enabled the pickup will start the trip time delay and the fault log This is not the case if set to Alarm only If the threshold violation persists after the trip time delay has elapsed the trip will be initiated upon its expirat...

Page 273: ...cally if the function initiates a trip The trip will however only take place if the current criterion is met at this time i e the set minimum current threshold 7006 50BF PICKUP Power System Data 1 has been exceeded Automatic reclosing AR The AR cannot be started directly In order to interact with the AR the trip command of the flexible func tion needs be linked in CFC to binary input no 2716 Start...

Page 274: ...ation Parameter BLK f out of r allows you to specify whether the protection function is blocked if the meas ured power frequency is outside the operating range of the function 25 Hz to 70 Hz SIEMENS recommends using the default setting YES A release beyond the normal operating range is only required for special appli cations Measured Variable In the setting dialog Measured Variable the measured va...

Page 275: ...election zero sequence system additional zero sequence current or zero sequence voltage functions can be realized that operate independent of the ground varia bles IN and VN which are measured directly via transformers Important The voltage threshold is always parameterized according to the definition of the balanced components independently of parameter VOLTAGE SYSTEM Parameter MEAS QUANTITY Curr...

Page 276: ...lied for example if an overload protection element must be realized on the basis of a current measurement as the higher harmonics contribute to thermal heating Parameter MEAS QUANTITY Current Parameter CURRENT Ia Ib Ic In In sensitive In2 It is determined which current measuring channel must be evaluated by the function Depending on the device version either IN normal sensitive ground current inpu...

Page 277: ...sideration that a minimum current of 0 03 ΙN is required for power calculation The power calculation is blocked for lower currents The dropout of pickup can be delayed via parameter T DROPOUT DELAY This setting is also set to zero by default standard setting A setting deviating from zero may be required if the device is utilized together with electro magnetic devices with considerably longer dropo...

Page 278: ...on dary nominal current of the current transformer Addr Parameter C Setting Options Default Setting Comments 0 FLEXIBLE FUNC OFF ON Alarm Only OFF Flexible Function 0 OPERRAT MODE 3 phase 1 phase no reference 3 phase Mode of Operation 0 BLK f out of r YES NO YES Block while Freq is out of range 0 MEAS QUANTITY Please select Current Voltage P forward P reverse Q forward Q reverse Power factor dV dt...

Page 279: ...0 P U THRESHOLD 50 00 70 00 Hz 61 00 Hz Pickup Threshold 0 P U THRESHOLD 0 10 20 00 Hz s 5 00 Hz s Pickup Threshold 0 P U THRESHOLD 1A 0 5 10000 0 W 200 0 W Pickup Threshold 5A 2 5 50000 0 W 1000 0 W 0 P U THRESHOLD 1A 0 5 10000 0 VAR 200 0 VAR Pickup Threshold 5A 2 5 50000 0 VAR 1000 0 VAR 0 P U THRESHOLD 0 99 0 99 0 50 Pickup Threshold 0 P U THRESHOLD 15 100 20 Pickup Threshold 0 P U THRESHOLD 4...

Page 280: ... C 235 2118 00 BLOCKED OUT Function 00 is BLOCKED 235 2119 00 OFF OUT Function 00 is switched OFF 235 2120 00 ACTIVE OUT Function 00 is ACTIVE 235 2121 00 picked up OUT Function 00 picked up 235 2122 00 pickup A OUT Function 00 Pickup Phase A 235 2123 00 pickup B OUT Function 00 Pickup Phase B 235 2124 00 pickup C OUT Function 00 Pickup Phase C 235 2125 00 Time Out OUT Function 00 TRIP Delay Time ...

Page 281: ...everse power protec tion Disconnection Facility The following fugure gives an example of an industrial control system with internal supply by the illustrated generator All illustrated lines and the busbar are indicated in three phase excluding the ground connections and the connection to the voltage measurement at the generator Both feeders 1 and 2 supply the consumers of the customer Usually the ...

Page 282: ...nection from the control system of the power supply company s power system is effected by the load isolator The transformer with a transformation ratio of 10 1 transforms the voltage level to 11 kV The transformer the generator and the two feeders are linked via a busbar at the low voltage side Circuit breakers CB2 to CB5 separate consumer and operational equipment from the busbar Functions 2 20 R...

Page 283: ...a remote link In addition the circuit breaker CB2 is activated Overcurrent protection functions protect the feeders 1 and 2 against short circuits and overload caused by the connected consumers The phase to phase currents and the zero currents of the feeders can be protected by inverse and definite time overcurrent protection elements In the event of a fault the circuit breakers CB4 and CB5 are ac...

Page 284: ...ents of the funda mental harmonics of the voltages and currents The evaluation of the positive sequence systems causes reverse power determination to be independent of the asymmetries in currents and voltages and reflects the real load of the driving end The calculated active power value corresponds to the total active power The connection in the example illustrates positive measurement of power i...

Page 285: ...figured as secondary power in watts The following relationship exists between the primary and the secondary power flexfkn ansprechwert 250204 he 1 en_US On the basis of the indicated data the pickup values are calculated considering P prim 3 81 MW 10 of 38 1 MW on the primary level to flexfkn ansprechwert numer 250204 he 1 en_US on the secondary level The dropout ratio is set to 0 9 This yields a ...

Page 286: ...he flexible function The parameter selection options for the flexible protection functions primarily depend on the settings made in the Power System Data 1 for the connection of the voltage and current transformers Addresses 213 and 251 flexfkn weitere funktionen 030204 he 1 en_US Figure 2 119 The flexible function appears in the function selection First activate the function at Settings General a...

Page 287: ...r direction cannot be determined in case of measured voltage failure protection blocking would be sensible in this case flexfkn einstellungen 5 watt 030204 he 1 en_US Figure 2 121 Setting options of the flexible function Allocating the Reverse Power Protection in DIGSI Configuration Matrix The DIGSI configuration matrix initially shows the following indications after selecting Indications and comm...

Page 288: ...quired by the application flexfkn rangierung nach dem editieren 030204 he 1 en_US Figure 2 123 Indications after editing The indications are allocated in the same way as the indications of other protective functions Functions 2 20 Reverse Power Protection Application with Flexible Protection Function 288 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 289: ...nism check of a feeder and a busbar see Figure 2 122 or the synchronism check of two busbars via bus coupler see Figure 2 125 Prerequisites In 7SJ62 only one SYNC function group exists Furthermore only the operation mode SYNCHROCHECK is avail able for 7SJ62 General For comparing the two voltages the synchronism check uses the reference voltage V1 and an additional voltage to be connected V2 If a t...

Page 290: ...tage The device can also be connected in open delta Voltage connection using two phase phase voltages In this case a phase to phase voltage must be connected to the voltage to be synchronized V2 Furthermore it should be noted that in case of a open delta voltage connection zero sequence voltage cannot be detected The functions Directional Overcurrent Protection Ground Directional Ground Fault Dete...

Page 291: ...k SYNC Error During startup of the device a parameter validation check is performed When there is a fault the message 25 Set Error is produced If after a measurement request there is a condition which is not plausible the message 25 Sync Error is output The measurement is then not initiated The following plausibility checks are carried out Checking unique function group identification Checking the...

Page 292: ...of Voltage Frequency and Angle Table 2 25 Conversion formulae between secondary primary and percentage values of the synchronisation function Measured values Secon dary Primary V1 V1sek V2 V2sek ΔV ΔVsek 20 Vsek corresponds to 100 Frequencies f1 f2 Δf f in Hz f2 f1 f in Hz f2 f1 1 Hz corresponds to 100 Angle differ ence Δα el α2 α1 el α2 α1 45 entspricht 100 Table 2 26 Legend for the conversion fo...

Page 293: ...r i e also with synchronous conditions prevailing Switching under Synchronous System Conditions Switching under synchronous conditions means that the ON command will be released as soon as the charac teristic data voltage difference angle difference are within the thresholds specified by configuration Before granting a release for closing under synchronous conditions the following conditions are c...

Page 294: ...tion that component V1 and component V2 are de energized Each of these conditions can be enabled or disabled individually combinations are thus also possible e g release if SYNC V1 V2 or SYNC V1 V2 are fulfilled For that reason synchronization with the use of the additional parameter 6x13 25 Synchron configured to NO can also be used for the connection of a ground electrode In such a case one may ...

Page 295: ...is condi tion is made via 25 1 BLOCK When blocking the measurement is terminated and the entire function is reset A new measurement can only be performed with a new measurement request Via binary input BLK 25 CLOSE it is possible to only block the release signal for closing 25 CloseRe lease When blocking is active measurement continues The blocking is indicated by the message 25 CLOSE BLK When blo...

Page 296: ... sends a measurement request 25 Measu req to the synchrocheck which is then started Having completed the check the synchrocheck issues the release message 25 CloseRelease to which the control responds by terminating the switching operation posi tively or negatively see Figure 2 126 zusammenwirken steuerung synchronisierfunktion 260602 kn 1 en_US Figure 2 126 Interaction of control and synchrocheck...

Page 297: ...nchronization the control launches the synchrocheck function and awaits release If the parameterized conditions of the respective SYNC function group are satisfied release is granted and the control issues the CLOSE command see Figure 2 127 anbindung awe an synchronisierfunktion 260602 kn 1 en_US Figure 2 127 Connection of the automatic reclosing function to the synchronization function With Exter...

Page 298: ...1 2 Setting Notes The operating mode can be preselected ASYN SYNCHRON means that switching will take place under synchronous and asynchronous conditions SYNCHROCHECK corresponds to the classic synchrocheck function If this function is not required then Disabled is set A synchronization function group thus rendered ineffec tive is disabled in the Synchronization menu item all other groups are displ...

Page 299: ...ditions can be activated or deactivated in parameter 6x13A 25 Synchron Power System Data The power system data for the synchronizing function are set at addresses 6x20 to 6x25 The circuit breaker closing time T CB close at address 6x20 is required if the device is to close also under asynchronous system conditions no matter whether for manual closing for automatic reclosing after three pole trippi...

Page 300: ...sed and configured as synchronized voltage V2 If two phase to phase voltages are connected in Vcon nection to side V1 then the voltage V2 to be synchronized must be a phase to phase voltage It must be connected and configured Single phase connection is also possible for sideV1 In address 240 VT Connect 1ph this information must be communicated to the device see above Setting of address 213 is not ...

Page 301: ...pled when the phases are equal Parameters 6x30 dV ASYN V2 V1 and 6x31 dV ASYN V2 V1 can be set to adjust the permissible voltage differences asymmetrically Parameters 6x32 df ASYN f2 f1 and 6x33 df ASYN f2 f1limit the operating range for asynchronous switching The availability of two parameters enables an asymmetrical release to be set Synchronous Conditions With parameter 6x40 SYNC PERMIS it can ...

Page 302: ...ystem conditions synchronisierfunktion arbeitsbereichfuerspgund freq 150502 kn 1 en_US Figure 2 133 Operating range under synchronous and asynchronous conditions for voltage V and frequency f Synchrocheck Address 6x50 dV SYNCHK V2 V1 and 6x50 dV SYNCHK V2 V1 can be used to configure the permitted voltage difference also asymmetrically The availability of two parameters enables an asymmetrical rele...

Page 303: ...1 and V2 6108 SYNC V1 V2 YES NO NO ON Command at V1 and V2 6109 SYNC V1 V2 YES NO NO ON Command at V1 and V2 6110A Direct CO YES NO NO Direct ON Command 6111A TSUP VOLTAGE 0 00 60 00 sec 0 10 sec Supervision time of V1 V2 or V1 V2 6112 T SYN DURATION 0 01 1200 00 sec 30 00 sec Maximum duration of Synchroni zation 6113A 25 Synchron YES NO YES Switching at synchronous condi tion 6120 T CB close 0 01...

Page 304: ... α1 2 80 10 Maximum angle difference alpha2 alpha1 Information List No Information Type of Informa tion Comments 170 0001 25 1 act SP 25 group 1 activate 170 0043 25 Sync req SP 25 Synchronization request 170 0049 25 CloseRelease OUT 25 Sync Release of CLOSE Command 170 0050 25 Sync Error OUT 25 Synchronization Error 170 0051 25 1 BLOCK OUT 25 group 1 is BLOCKED 170 2007 25 Measu req SP 25 Sync Me...

Page 305: ... 2040 25 V2 OUT 25 Voltage V2 Vmin permissible 170 2050 V1 MV V1 170 2051 f1 MV f1 170 2052 V2 MV V2 170 2053 f2 MV f2 170 2054 dV MV dV 170 2055 df MV df 170 2056 dα MV dalpha 170 2090 25 V2 V1 OUT 25 Vdiff too large V2 V1 170 2091 25 V2 V1 OUT 25 Vdiff too large V2 V1 170 2092 25 f2 f1 OUT 25 fdiff too large f2 f1 170 2093 25 f2 f1 OUT 25 fdiff too large f2 f1 170 2094 25 α2 α1 OUT 25 alphadiff ...

Page 306: ...ox via the additional interface port D Therefore up to 12 temperature measuring points are available in this way For greater distances to the protection device the communication via fiber optic cables is recommended Alternative communication struc tures are shown in C Connection Examples Processing Temperatures The transmitted raw temperature data is converted to a temperature in degrees Celsius o...

Page 307: ...u can choose between Ni 120 Ω and Ni 100 Ω If no measuring point is available for RTD 1 set RTD 1 TYPE Not connected This setting is only possible in DIGSI at Display Additional Settings Address 9012 RTD 1 LOCATION informs the device on the mounting location of RTD 1 You can choose between Oil Ambient Winding Bearing and Other The selection is not evaluated in the device but only serves the purpos...

Page 308: ...ed and processed in the same way Messages and measured values can thus be forwarded to the integrated userde fined logic CFC and interconnected as desired Pickup signals RTD x Anr St 1 and RTD x Anr St 2 however are neither included in the group alarms 501 Relay PICKUP and 511 Relay TRIP nor do they trigger a trip log If it is desired that a message should appear in the event log a cross must be e...

Page 309: ...C 100 C RTD 3 Temperature Stage 1 Pickup 9034 RTD 3 STAGE 1 58 482 F 212 F RTD 3 Temperature Stage 1 Pickup 9035 RTD 3 STAGE 2 50 250 C 120 C RTD 3 Temperature Stage 2 Pickup 9036 RTD 3 STAGE 2 58 482 F 248 F RTD 3 Temperature Stage 2 Pickup 9041A RTD 4 TYPE Not connected Pt 100 Ω Ni 120 Ω Ni 100 Ω Not connected RTD 4 Type 9042A RTD 4 LOCATION Oil Ambient Winding Bearing Other Other RTD 4 Location...

Page 310: ...bient Winding Bearing Other Other RTD 6 Location 9063 RTD 6 STAGE 1 50 250 C 100 C RTD 6 Temperature Stage 1 Pickup 9064 RTD 6 STAGE 1 58 482 F 212 F RTD 6 Temperature Stage 1 Pickup 9065 RTD 6 STAGE 2 50 250 C 120 C RTD 6 Temperature Stage 2 Pickup 9066 RTD 6 STAGE 2 58 482 F 248 F RTD 6 Temperature Stage 2 Pickup 9071A RTD 7 TYPE Not connected Pt 100 Ω Ni 120 Ω Ni 100 Ω Not connected RTD 7 Type ...

Page 311: ...120 Ω Ni 100 Ω Not connected RTD 9 Type 9092A RTD 9 LOCATION Oil Ambient Winding Bearing Other Other RTD 9 Location 9093 RTD 9 STAGE 1 50 250 C 100 C RTD 9 Temperature Stage 1 Pickup 9094 RTD 9 STAGE 1 58 482 F 212 F RTD 9 Temperature Stage 1 Pickup 9095 RTD 9 STAGE 2 50 250 C 120 C RTD 9 Temperature Stage 2 Pickup 9096 RTD 9 STAGE 2 58 482 F 248 F RTD 9 Temperature Stage 2 Pickup 9101A RTD10 TYPE...

Page 312: ...t connected Pt 100 Ω Ni 120 Ω Ni 100 Ω Not connected RTD12 Type 9122A RTD12 LOCATION Oil Ambient Winding Bearing Other Other RTD12 Location 9123 RTD12 STAGE 1 50 250 C 100 C RTD12 Temperature Stage 1 Pickup 9124 RTD12 STAGE 1 58 482 F 212 F RTD12 Temperature Stage 1 Pickup 9125 RTD12 STAGE 2 50 250 C 120 C RTD12 Temperature Stage 2 Pickup 9126 RTD12 STAGE 2 58 482 F 248 F RTD12 Temperature Stage 2...

Page 313: ...cked up 14171 Fail RTD 7 OUT Fail RTD 7 broken wire shorted 14172 RTD 7 St 1 p up OUT RTD 7 Temperature stage 1 picked up 14173 RTD 7 St 2 p up OUT RTD 7 Temperature stage 2 picked up 14181 Fail RTD 8 OUT Fail RTD 8 broken wire shorted 14182 RTD 8 St 1 p up OUT RTD 8 Temperature stage 1 picked up 14183 RTD 8 St 2 p up OUT RTD 8 Temperature stage 2 picked up 14191 Fail RTD 9 OUT Fail RTD 9 broken w...

Page 314: ...a the exclu sive OR gate the binary input Reverse Rot inverts the sense of the phase rotation applied with setting meldelogikdrehfeldumschaltung 090902 kn 1 en_US Figure 2 135 Message logic of the phase rotation reversal Influence on Protective and Monitoring Functions The swapping of phases directly impacts the calculation of positive and negative sequence quantities as well as phase to phase vol...

Page 315: ... are Automatic reclosing devices Starting of additional devices or similar Tripping Logic of the Entire Device General Tripping The trip signals for all protective functions are connected by OR and generate the message 511 Relay TRIP This message can be configured to an LED or binary output just as the individual tripping messages can Terminating the Trip Signal Once the trip command is output by ...

Page 316: ...Trip Signal Duration The minimum trip command duration TMin TRIP CMD was described already in Section 2 1 3 Power System Data 1 This setting applies to all protective functions that initiate tripping 2 24 3 Functions 2 24 Function Logic 316 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 317: ...ary input configured for that purpose Using one of the serial interfaces Automatically at the beginning of a new pickup State indication messages should not be latched Also they cannot be reset until the criterion to be reported has reset This applies to messages from monitoring functions or similar A green LED displays operational readiness of the relay RUN and cannot be reset It goes out if the ...

Page 318: ...ute time of the internal system clock The progress of the disturbance is output with a relative time referred to the instant of fault detection so that the duration of the fault until tripping and up to reset of the trip command can be ascertained The resolution of the time information is 1 ms Spontaneous Displays on the Device Front For devices featuring a four line text display the most relevant...

Page 319: ...nformation to a Substation Control Center If the device has a serial system interface stored information may additionally be transferred via this interface to a centralized control and storage device Transmission is possible via different transmission protocols Statistics The number of trips initiated by the 7SJ62 64 the number of close commands initiated by the AR and the operating hours under lo...

Page 320: ...edures aiding in CB maintenance allow maintenance intervals of the CB poles to be carried out when their actual degree of wear makes it necessary Saving on maintenance and servicing costs is one of the main benefits this functionality offers The universal CB maintenance accumulates the tripping currents of the trips initiated by the protective func tions and comprises the four following autonomous...

Page 321: ...it breaker is put in motion in order to separate the contacts As soon as the start criterion has been fulfilled the parameterized opening time of the circuit breaker is started The time of commencement of separation of the circuit breaker contacts is thus determined The end of the trip procedure including arc deletion is determined via another given parameter CB tripping time supplied by the manuf...

Page 322: ...a protective trip are summed up for each phase These tripping currents are r m s values of the fundamental harmonic The interrupted current in each pole is determined for each trip signal The interrupted fault current is indi cated in the fault messages and is added up with previously stored fault current values in the statistic coun ters Measured values are indicated in primary terms Functions 2 ...

Page 323: ...x as well as the output of the new related summation tripping current powers If one of the new statistic values lies above the threshold the message Threshold ΣI x is generated 2P Procedure The application of the two point procedure for the calculation of the remaining lifespan depends on the CMD configuration The data supplied by the CB manufacturer is transformed in such manner that by means of ...

Page 324: ...ic representation can be derived from the exponential func tion and leads to the coefficients b and m i i NOTE Since a directional coefficient of m 4 is technically irrelevant but could theoretically be the result of incorrect settings it is limited to 4 If a coefficient is smaller than 4 the exponential function in the oper ating cycles diagram is deactivated The maximum number of operating cycle...

Page 325: ...ircuit breaker has tripped 100 times with rated operating current 2 times with rated short circuit current and 3 times with 10 kA The number of permissible trippings with rated operating current is calculated as following fo_7sj_remaining lifetime _03 1 en_US RLT Remaining lifetime In the example 9465 more trippings with rated operating current are possible If the current criterion described in th...

Page 326: ...ted Commissioning Usually no measures are required for commissioning However should the protection device be exchanged e g old circuit breaker and a new protection device the initial values of the respective limit or statistical values must be determined via the switching statistics of the respective circuit breaker Motor Statistics General There are two different types of statistical motor data O...

Page 327: ...ess 172 52 B WEAR MONIT one of the alternatives ΣΙx procedure 2P procedure Ι2t procedure or Disabled can be set All parameters relevant to this function are available at parameter block P System Data 1 see Section 2 1 3 Power System Data 1 The following setting values are important input values the subfunctions require in order to operate correctly The CB Tripping Time is a characteristic value pr...

Page 328: ...n be interpreted as the number of tripping operations at rated operational current of the CB They are displayed in the statistical values without unit and with two decimal places 2P Procedure Parameter 172 52 B WEAR MONIT can be set to activate the 2P procedure An operating cycles diagram see sample diagram in the functional description of the 2P procedure provided by the manufacturer shows the re...

Page 329: ... Information Type of Informa tion Comments 10027 StartDuration1 VI Startup Duration 1 10028 StartupCurrent1 VI Startup Current 1 10029 StartupVoltage1 VI Startup Voltage 1 10030 Nr of Mot Start VI Total Number of Motor Starts 10031 Motor Run Time VI Total Motor Running Time 10032 Motor Stop Time VI Total Motor Stopped Time 10033 Perc Run Time VI Motor Percent Running Time 10037 StartDuration2 VI S...

Page 330: ...asis for the conversion of secondary values to primary values and percentages Display of Measured Values Table 2 28 Conversion formulae between secondary values and primary percentage values Measured Values sekun dary primary ΙA ΙB ΙC Ι1 Ι2 Ιsec ΙE 3 Ι0 calculated Ιe sec ΙN measured value of ΙN input ΙN sec ΙNs ΙNs Ι3I0real Ι3I0reakctiv ΙNs sec VA VB VC V0 V1 V2 Vsyn VPh N sec VA B VB C VC A VPh P...

Page 331: ...mal measured value of restart inhibit rotor winding Θ Restart restarting limit of restart inhibit TReclose total time before the motor can be restarted ΘRTD 1 to ΘRTD 12 temperature values at the RTD box Upon delivery the power and operating values are set in such manner that power in line direction is positive Active components in line direction and inductive reactive components in line direction...

Page 332: ...measured value to be trans mitted This will result in the respective transmittable measuring range For further details please refer to the descriptions and protocol profiles Information List No Information Type of Informa tion Comments 268 Superv Pressure OUT Supervision Pressure 269 Superv Temp OUT Supervision Temperature 601 Ia MV Ia 602 Ib MV Ib 603 Ic MV Ic 604 In MV In 605 I1 MV I1 positive s...

Page 333: ...30701 Pa MV Pa active power phase A 30702 Pb MV Pb active power phase B 30703 Pc MV Pc active power phase C 30704 Qa MV Qa reactive power phase A 30705 Qb MV Qb reactive power phase B 30706 Qc MV Qc reactive power phase C 30707 PFa MV Power Factor phase A 30708 PFb MV Power Factor phase B 30709 PFc MV Power Factor phase C 30800 VX MV Voltage VX Average Measurements The long term averages are calcu...

Page 334: ...iod has passed Settings Addr Parameter Setting Options Default Setting Comments 8301 DMD Interval 15 Min 1 Sub 15 Min 3 Subs 15 Min 15 Subs 30 Min 1 Sub 60 Min 1 Sub 60 Min 10 Subs 5 Min 5 Subs 60 Min 1 Sub Demand Calculation Intervals 8302 DMD Sync Time On The Hour 15 After Hour 30 After Hour 45 After Hour On The Hour Demand Synchronization Time Information List No Information Type of Informa tio...

Page 335: ... Options Default Setting Comments 8311 MinMax cycRESET NO YES YES Automatic Cyclic Reset Function 8312 MiMa RESET TIME 0 1439 min 0 min MinMax Reset Timer 8313 MiMa RESETCYCLE 1 365 Days 7 Days MinMax Reset Cycle Period 8314 MinMaxRES START 1 365 Days 1 Days MinMax Start Reset Cycle in Information List No Information Type of Informa tion Comments ResMinMax IntSP_Ev Reset Minimum and Maximum counte...

Page 336: ...Min 860 Va nMax MVT Va n Max 861 Vb nMin MVT Vb n Min 862 Vb nMax MVT Vb n Max 863 Vc nMin MVT Vc n Min 864 Vc nMax MVT Vc n Max 865 Va bMin MVT Va b Min 867 Va bMax MVT Va b Max 868 Vb cMin MVT Vb c Min 869 Vb cMax MVT Vb c Max 870 Vc aMin MVT Vc a Min 871 Vc aMax MVT Vc a Max 872 Vn Min MVT V neutral Min 873 Vn Max MVT V neutral Max 874 V1 Min MVT V1 positive sequence Voltage Minimum 875 V1 Max ...

Page 337: ...not respond to fast measured value changes before protection functions are started and tripped This monitoring program is not suitable for blocking protection functions Description Setpoint Monitoring Upon delivery the following individual setpoint levels are configured ΙAdmd Exceeding a preset maximum average value in Phase A ΙBdmd Exceeding a preset maximum average value in Phase B ΙCdmd Exceedi...

Page 338: ...istic Description For the statistical counters setpoints may be entered and a message is generated as soon as they are reached The message can be allocated to both output relays and LEDs Setting Notes Setpoints for the Statistical Counter The setting of threshold values for the statistical counters takes place in DIGSI under Messages Statistics in the sub menu Threshold Values for Statistics Doubl...

Page 339: ...ut or capacitive and inductive The measured value resolution can be configured The signs of the measured values appear as configured in address 1108 P Q VORZEICHEN see Section Display of Measured Values Setting Notes Setting of parameter for meter resolution Parameter 8315 MeterResolution allows increasing the resolution of the energy metered values by the Factor 10 or Factor 100 compared to the S...

Page 340: ... system interface and uses it to communicate with the control center the DIGSI device operation can be used to test if messages are transmitted correctly A dialog box shows the display texts of all messages which were allocated to the system interface in the configuration matrix In another column of the dialog box you can specify a value for the messages you intend to test e g ON OFF After having ...

Page 341: ...he general functions are described in the Help file of the DIGSI CD as from DIGSI V4 60 Prerequisites The Web Monitor runs on the operator PC and requires only standard software The following software programs operating systems must be installed Operating system Microsoft Windows 7 Microsoft Windows XP Microsoft Windows 2000 Microsoft Windows NT Microsoft Windows ME Microsoft Windows 98 Internet b...

Page 342: ...and the TCP IP address of the protection device is entered The server address of the device which is its homepage address is transmitted to the browser and displayed as an HTML page This TCP IP address is set at the front and service interface using DIGSI 4 or directly on the device using the integrated operator interface i i NOTE It is only possible to monitor this process Control of the process ...

Page 343: ...ay as with the sealed keypad on the device It is recommended to block the control via the Web Monitor This can be achieved by setting Read Only access for the interface via which the Web browser accesses the device This parameter can be accessed in DIGSI via Interfaces Operator Interface on Device for access via serial interface or via Interfaces Ethernet on Device for access via the Ethernet inte...

Page 344: ...hernet interface As an example for the basic functionality the figure below shows messages of the event log of the device in the form of a list These messages are displayed with their short text stored in the device Functions 2 25 Auxiliary Functions 344 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 345: ...ion ranges are displayed in a coordinate system The X axis shows the frequency and the Y axis the voltage Synchronoscope The synchronoscope is dynamically visualized by three diagrams showing respectively the difference angle the difference voltages and the difference frequency Synchronous systems Synchronous networks are visualized by a pie chart and the current measured values The figure below s...

Page 346: ... as an accessory with DIGSI Optional Connection via Modem Serial connection of the rear service interface of the device with a modem in the system This connection can be electrically implemented via RS232 over short distance or via fiber optics The connection to the system modem is established from the office or from any other system using a switched line DIGSI Remote can also be carried out using...

Page 347: ...s full access in this case See Figure 2 144 on that Display Example With the help of the Web Monitor a clear represenation of the most important measurement data of the device can be achieved The measurement values can be called via the navigation bar A list with the desired information appears see the following figure webmon primaer mess wlk 040427 1 en_US Figure 2 147 Measured values in the Web ...

Page 348: ...nd for the rear service interface These are IP addresses related to the interface via which communication with the PC and the Web monitor is to be performed The IP addresses apply to SIPROTEC for the following operations via the front operator interface 192 168 1 1 rear service interface 192 168 2 1 If the device has an EN100 module operation via the system interface is also possible In this case ...

Page 349: ...ed by only one voltage transformer this will have an impact on several device func tions The ones affected are described in the following Furthermore this type of connection is dealt with in the functional descriptions Functions not mentioned in the following are not affected by this type of connec tion Undervoltage Protection Overvoltage Protection 27 59 Elements Depending on the configuration in...

Page 350: ...ements If the device is connected to only one voltage transformer the function is set to inactive and hidden Synchronization The synchronization function can be applied without any restrictions Connection examples are shown in the following figure and in the Appendix C Connection Examples anschluss sj64 einphas l1 e 250902 kn 1 en_US Figure 2 150 Connection example of a single phase voltage transf...

Page 351: ...25 and 7SJ626 with single phase voltage transformer connection the voltage connected to voltage input V4 is always used for synchronization Nominal Values of Voltage Transformers In addresses 202 Vnom PRIMARY and 203 Vnom SECONDARY set as usual the voltage transformer nominal values defined as phase to phase quantities This depends on whether the device is connected to a phase voltage or phase to ...

Page 352: ...hase to ground Apply the following settings to the device Address 202 Vnom PRIMARY 138 kV Address 203 Vnom SECONDARY 115 V Address 240 VT Connect 1ph Van einstellbeispiel einphas anschluss 220802 kn 1 en_US Functions 2 26 Protection for Single phase Voltage Transformer Connection 352 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 353: ...ol actions e g close open cancel are available and can be selected using the and keys Thereafter a query appears for security reasons After the security check has been completed the ENTER key must be pressed again to carry out the command If this release does not occur within one minute the process is aborted Cancellation via the ESC key is possible at any time before the control command is issued...

Page 354: ...h gear control and protection system It is therefore required to ensure that the required peripherals physically exist in the device and in the power system Furthermore certain settings for the serial interface in the device need to be carried out see SIPROTEC 4 System Description Information List No Information Type of Informa tion Comments 52Breaker CF_D12 52 Breaker 52Breaker DP 52 Breaker Disc...

Page 355: ...switching authority remote local settings group switching data transmission block and deleting presetting metered values Acknowledgment and resetting commands for setting and resetting internal buffers or data states Information status command to set reset the additional information information status of a process object such as Input blocking Output blocking Command Sequence Safety mechanisms in ...

Page 356: ...itoring the Command Execution The following is monitored Interruption of a command because of a Cancel Command Runtime Monitor feedback message monitoring time Interlocking System interlocking is executed by the user defined logic CFC Description Interlocking checks in a SICAM SIPROTEC 4 system are normally divided in the following groups System interlocking relies on the system data base in the s...

Page 357: ...e SIPROTEC 4 System Description The following figure shows operational indications relating to command execution and operation response information for successful switching of the circuit breaker The check of interlocking can be programmed separately for all switching devices and tags that were set with a tagging command Other internal commands such as manual entry or abort are not checked i e car...

Page 358: ... a second cannot be carried out Switching Authority LOCAL A control command from the user interface of the device command with command source LOCAL is only allowed if the Key Switch for devices without key switch via configura tion is set to LOCAL Switching Authority DIGSI Switching commands that are issued locally or remotely via DIGSI command with command source DIGSI are only allowed if remote ...

Page 359: ...902 kn 1 en_US Figure 2 153 Standard interlockings The following figure shows the configuration of the interlocking conditions using DIGSI Functions 2 27 Breaker Control SIPROTEC 4 7SJ62 64 Manual 359 C53000 G1140 C207 8 Edition 08 2016 ...

Page 360: ...hing Authority L L System interlocking S A Zone controlled Z Z SET ACTUAL switch direction check P P Protection blocking B B The following figure shows all interlocking conditions which usually appear in the display of the device for three switchgear items with the relevant abbreviations explained in the previous table All parameterized interlocking conditions are indicated verriegelungsbed 020315...

Page 361: ...ber VD The device only accepts commands having that VD with switching authority OFF or REMOTE When the DIGSI PC logs off the VD is cancelled Commands are checked for their source SC and the device settings and compared to the information set in the objects Switching authority and Switching authority DIGSI Configuration Switching authority available y n create appropriate object Switching authority...

Page 362: ...terlocking is accomplished via a separate command The position of the key switch is irrelevant For commands from CFC SC AUTO SICAM please observe the notes in the CFC manual compo nent BOOL to command Switching Mode for devices without operator panel The dongle cable sets the switching mode of the device to Normal The specifications of the previous section apply Zone Controlled Field Interlocking ...

Page 363: ...ed latched or non interlocked unlatched can be set in devices with a housing of size 1 2 or 1 1 via the key switch The position Interlocking OFF corresponds to non interlocked switching and serves the special purpose of unlocking the standard interlocks For devices in a housing of size 1 3 the switching mode can be changed between interlocked latched and non interlocked unlatched on the operator p...

Page 364: ...thin the monitoring time The monitoring time is stopped as soon as the feedback information arrives If no feedback information arrives a response Timeout command monitoring time appears and the process is terminated Commands and information feedback are also recorded in the event list Normally the execution of a command is terminated as soon as the feedback information FB of the relevant switchgea...

Page 365: ...er systems and the safety rules and regulations Hardware adjustments to the power system data might be necessary The primary tests require the protected object line transformer etc to carry load 3 1 Mounting and Connections 366 3 2 Checking Connections 412 3 3 Commissioning 417 3 4 Final Preparation of the Device 436 3 SIPROTEC 4 7SJ62 64 Manual 365 C53000 G1140 C207 8 Edition 08 2016 ...

Page 366: ...ection the 4th voltage measuring input is not used the address 213 VT Connect 3ph Van Vbn Vcn must be set accordingly The factor in address 206 Vph Vdelta must however be set to 1 73 this factor is used internally for the conversion of measured and fault values Also an additional connection example of an e n winding of the voltage transformer is shown Here address 213 must be set to VT Connect 3ph...

Page 367: ...inary inputs are used to switch setting groups please observe the following Two binary inputs must be dedicated to the purpose of changing setting groups when four groups are to be switched One binary input must be set for Set Group Bit0 the other input for Set Group Bit1 If either of these input functions is not assigned then it is considered as not controlled For the control of 2 setting groups ...

Page 368: ...erted into the circuit of the 52b circuit breaker auxiliary contact to facilitate the detection of a malfunction also when the 52a circuit breaker auxiliary contact is open and the trip contact has dropped out The value of this resistor must be such that in the circuit breaker open condition therefore 52a is open and 52b is closed the circuit breaker trip coil 52TC is no longer energized and binar...

Page 369: ...OW Maximum voltage on the circuit breaker coil that does not lead to tripping If the calculation results in Rmax Rmin the calculation must be repeated with the next lowest switching threshold VBI min and this threshold must be implemented in the relay using plug in jumpers see Section Hardware Modifications For the power consumption of the resistance formel leistungvon r 260602 kn 1 en_US Example ...

Page 370: ...se and the buffer battery are also shown When the devices are delivered these jumpers are set correctly according to the nameplate stickers and need not be altered Depending on the modification addi tional plug in jumpers are required These must be ordered see Appendix A Ordering Information and Acces sories Live Status Contact The live contacts of devices 7SJ62 64 are changeover contacts With dev...

Page 371: ...s 7SJ62 and 7SJ64 in the following sections Exchanging Interfaces The serial interface can only be replaced in devices designed for panel and cubicle flush mounting and for surface mounted devices with detached or without operator panel The following section under margin heading Rreplacing Interface Modules describes which interfaces can be exchanged and how this is done Termination of Bus capable...

Page 372: ...osts of the D subminiature connectors on the back panel at location A and C 7SJ64 This is not necessary if the device is designed for surface mounting If the device has additional interfaces at locations B and D apart from interfaces at locations A and C the screws located diagonally to the interfaces must be removed This is not necessary if the device is designed for surface mounting Remove the f...

Page 373: ...rds and set them on the grounded mat to protect them from ESD damage In the case of the device variant for panel surface mounting please be aware of the fact a certain amount of force is required in order to remove the CPU board due to the existing plug connector Check the jumpers according to Figure 3 9 to Figure 3 19 and the following information Change or remove the jumpers if necessary The arr...

Page 374: ...arrangement of the modules for devices 7SJ64 with housing size 1 3 The subsequent figures illustrate housing sizes 1 2 and 1 1 frontansicht geh drittel o frontkappe7sj64 160502 wlk 1 en_US Figure 3 5 Front view with housing size 1 3 after removal of the front cover simplified and scaled down Mounting and Commissioning 3 1 Mounting and Connections 374 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 ...

Page 375: ...front cover simplified and scaled down frontansicht gehaeuse ein o frontkappe7sj645 160502 wlk 1 en_US Figure 3 7 Front view of the 7SJ645 with housing size 1 1 after removal of the front cover simplified and scaled down Mounting and Commissioning 3 1 Mounting and Connections SIPROTEC 4 7SJ62 64 Manual 375 C53000 G1140 C207 8 Edition 08 2016 ...

Page 376: ...ments on the Printed Circuit Boards of Device 7SJ62 Three different releases of the A CPU board are available They are shown in the following figures The loca tion of the miniature fuse F1 and of the buffer battery G1 are also shown in the following figures 3 1 2 3 Mounting and Commissioning 3 1 Mounting and Connections 376 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 377: ...2 and the selected pickup voltages of the binary inputs BI1 to BI3 according to Table 3 3 Power Supply Table 3 2 Jumper settings for the nominal voltage of the integrated power supply on the processor board A CPU to 7SJ62 DD Jumper Rated Voltage DC 60 V to 125 V DC 110 V to 250 V AC 115 V DC 24 V 48 V AC 230 V X51 1 2 2 3 Jumpers X51 to X53 are not used X52 1 2 and 3 4 2 3 X53 1 2 2 3 Mounting and...

Page 378: ...I3 on the processor board A CPU to 7SJ62 DD Binary Inputs Jumper DC 19 V Pickup 1 DC 88 V Pickup3 BI1 X21 L H BI2 X22 L H BI3 X23 L H 1 Factory settings for devices with power supply voltages of DC 24 V to 125 V 2 Factory settings for devices with power supply voltages of DC 110 V to 220 V and AC 115 V 230 V Mounting and Commissioning 3 1 Mounting and Connections 378 SIPROTEC 4 7SJ62 64 Manual C53...

Page 379: ...ages of the binary inputs BI1 to BI3 are checked according to Table 3 5 and the contact mode of the binary outputs BO1 and BO2 is checked according to Table 3 6 Power Supply Table 3 4 Jumper settings for the nominal voltage of the integrated power supply on the processor board A CPU to 7SJ62 EE Jumper Nominal Voltage DC 24 V 48 V DC 60 V to 125 V DC 110 V to 250 V AC 115 V to 230 V X51 Not used 1 ...

Page 380: ... X23 L H 1 Factory settings for devices with power supply voltages of DC 24 V to 125 V 2 Factory settings for devices with power supply voltages of DC 110 V to 220 V and AC 115 V 230 V Contact Mode for Binary Outputs BO1 and BO2 Table 3 6 Jumper settings for the contact mode of the relays BO1 to BO2 on the processor board A CPU for7SJ62 EE for Jumper Open in quiescent state NO Closed in quiescent ...

Page 381: ...ower Supply Table 3 7 Jumper settings for the nominal voltage of the integrated power supply on the processor board A CPU as from 7SJ62 FF Jumper Nominal Voltage DC 24 V 48 V DC 60 V to 125 V DC 110 V to 250 V AC 115 V to 230 V X51 not used 1 2 2 3 X52 not used 1 2 and 3 4 2 3 X53 not used 1 2 2 3 not changeable interchangeable Mounting and Commissioning 3 1 Mounting and Connections SIPROTEC 4 7SJ...

Page 382: ...voltages of DC 24 V to 125 V 2 Factory settings for devices with power supply voltages of DC 110 V to 220 V and AC 115 V 230 V Contact Mode for Binary Outputs BO1 and BO2 Table 3 9 Jumper settings for the contact mode of the relays BO1 and BO2 on the processor board A CPU as from 7SJ62 FF for Jumper Open in quiescent state NO Closed in quiescent state NC Presetting BO1 X41 1 2 2 3 1 2 BO2 X42 1 2 ...

Page 383: ...required for the module configuration as from firmware V4 7 The jumper settings for Power supply Control voltage and Contact type are identical to the settings for the processor module A CPU FF see Processor Board A CPU for 7SJ62 FF Page 381 Mounting and Commissioning 3 1 Mounting and Connections SIPROTEC 4 7SJ62 64 Manual 383 C53000 G1140 C207 8 Edition 08 2016 ...

Page 384: ...0 to X63 must all be set to the same rated current i e one jumper X61 to X63 for each input transformer and in addition the common jumper X60 The jumper X64 determines the rated current for the input ΙN and may thus have a setting that deviates from that of the phase currents In models with sensitive ground fault current input there is no jumper X64 Pickup Voltage of BI4 to BI11 Table 3 10 Jumper ...

Page 385: ...10 X27 L H BI11 X28 L H 1 Factory settings for devices with power supply voltages of DC 24 V to 125 V 2 Factory settings for devices with power supply voltages of DC 110 V to 220 V and AC 115 V 230 V Mounting and Commissioning 3 1 Mounting and Connections SIPROTEC 4 7SJ62 64 Manual 385 C53000 G1140 C207 8 Edition 08 2016 ...

Page 386: ...figuration The jumpers X60 to X63 must all be set to the same rated current i e one jumper X61 to X63 for each input transformer and in addition the common jumper X60 The jumper X64 determines the rated current for the input ΙN and may thus have a setting that deviates from that of the phase currents In models with sensitive ground fault current input there is no jumper X64 The measuring range of ...

Page 387: ...puts Jumper DC 19 V threshold 1 DC 88 V threshold 3 DC 176 V threshold BI4 X21 L M H BI5 X22 L M H BI6 X23 L M H BI7 X24 L M H BI8 X25 L M H BI9 X26 L M H BI10 X27 L M H BI11 X28 L M H 1 Factory settings for devices with power supply voltages of DC 24 V to 125 V 2 Factory settings for devices with power supply voltages of DC 110 V to 220 V and AC 115 V 230 V Mounting and Commissioning 3 1 Mounting...

Page 388: ...gure 3 15 Processor printed circuit board C CPU 2 with jumpers settings required for the board configu ration The set nominal voltage of the integrated power supply is checked according to Table 3 12 the quiescent state of the life contact according to Table 3 13 and the selected control voltages of the binary inputs BI1 to BI5 according to Table 3 14 and the integrated interface RS232 RS485 accor...

Page 389: ... V Pickup 2 DC 176 V Pickup 3 BI1 X21 1 2 2 3 3 4 BI2 X22 1 2 2 3 3 4 BI3 X23 1 2 2 3 3 4 BI4 X24 1 2 2 3 3 4 BI5 X25 1 2 2 3 3 4 1 Factory settings for devices with power supply voltages of DC 24 V to 125 V 2 Factory settings for devices with power supply voltages of DC 110 V to 220 V and AC 115 V or 115 V to 230 V 3 Use only with pickup voltages DC 220 V 250 V RS232 RS485 The service interface P...

Page 390: ... 9 pin to 25 pin i i NOTE For a direct connection to DIGSI with interface RS232 jumper X111 must be plugged in position 2 3 If there are no external matching resistors in the system the last devices on a RS485 bus must be configured using jumpers X103 and X104 Terminating Resistors Table 3 17 Jumper settings of the Terminating Resistors of interface RS485 on the processor board CCPU 2 Jumper Termi...

Page 391: ...e one jumper X61 to X63 for each input transformer of the phase currents and in addition the common jumper X60 The jumper X64 determines the rated current for the input ΙN and may thus have a setting that deviates from that of the phase currents In models with sensitive ground fault current input there is no jumper X64 For normal ground current inputs the jumper X65 is plugged in position IE and f...

Page 392: ...voltages DC 220 V or 250 V Jumpers X71 X72 and X73 on the input output board C I O 11 are used to set the bus address and must not be changed The following table lists the jumper presettings Mounting location with housing size 1 3 Serial no 2 in Figure 3 5 slot 19 with housing size 1 2 Serial no 2 in Figure 3 6 slot 33 with housing size 1 1 Serial no 2 in Figure 3 7 slot 33 on right side Bus Addre...

Page 393: ...red for checking configura tion settings The selected pickup voltages of the binary inputs BI8 to BI20 with housing size 1 2 are checked according to Table 3 20 BI8 to BI33 with housing size 1 1 are checked according to Table 3 21 Figure 3 6 and Figure 3 77 illustrate the assignment of the binary inputs to the module slot Mounting and Commissioning 3 1 Mounting and Connections SIPROTEC 4 7SJ62 64 ...

Page 394: ...s BI8 to BI33 on the input output board B I O 2 for model 7SJ645 housing size 1 1 Binary Inputs Jumper DC 19 V Pickup 1 DC 88 V Pickup 2 Slot 33 left side Slot 19 right side BI8 BI21 X21 1 2 2 3 BI9 BI22 X22 1 2 2 3 BI10 BI23 X23 1 2 2 3 BI11 BI24 X24 1 2 2 3 BI12 BI25 X25 1 2 2 3 BI13 BI26 X26 1 2 2 3 BI14 BI27 X27 1 2 2 3 BI15 BI28 X28 1 2 2 3 BI16 BI29 X29 1 2 2 3 BI17 BI30 X30 1 2 2 3 BI18 BI3...

Page 395: ...n Slot 19 X71 1 2 X72 2 3 X73 1 2 Table 3 23 Jumper settings of Bus Addresses of input output boards B I O 2 for 7SJ64 housing size 1 1 Jumper Mounting Location Slot 19 right side Slot 33 left side X71 2 3 1 2 X72 1 2 2 3 X73 1 2 1 2 Mounting and Commissioning 3 1 Mounting and Connections SIPROTEC 4 7SJ62 64 Manual 395 C53000 G1140 C207 8 Edition 08 2016 ...

Page 396: ...ed according to Table 3 25 Figure 3 6 illustrates the assignment of the binary inputs to the mounting location Pickup Voltages of BI8 to BI15 for 7SJ641 Table 3 24 Jumper settings for the Pickup Voltages of the binary inputs BI8 to BI15 on the input output board C I O 1 for model 7SJ641 Binary Inputs Jumper DC 19 V Pickup 1 DC 88 V Pickup 2 DC 176 V Pickup 3 BI8 X21 X22 L M H BI9 X23 X24 L M H BI1...

Page 397: ...setting of jumper X40 regarding the contact mode Table 3 25 Jumper settings for Contact Mode of the binary output BO6 on the input output board C I O 1 Jumper Open in quiescent state NO Closed in quiescent state NC Presetting X40 1 2 2 3 1 2 Bus Address Jumpers X71 X72 and X73 on the input output board C I O 1 are used to set the bus address and must not be changed The following table lists the ju...

Page 398: ...ut module C I O 4 with representation of the jumper settings required for the module configuration Pickup Voltage of the BI34 to BI48 for 7SJ647 Table 3 27 Jumper settings for the Pickup Voltages of the binary inputs BI34 to BI48 on the input output board C I O 4 Binary inputs Jumper DC 19 V threshold 1 DC 88 V threshold 3 DC 176 V threshold 3 BI34 X21 1 2 2 3 3 4 BI35 X22 1 2 2 3 3 4 Mounting and...

Page 399: ...upply voltages of DC 24 V to 125 V 2 Factory settings for devices with power supply voltages of DC 110 V to 250 V and AC 115 V 230 V 3 Use only with control voltages DC 220 V or 250 V Bus Address Jumpers X71 X72 and X73 on the C I O 4 board serve to set the bus address The jumpers must not be changed The following table lists the jumper presettings Table 3 28 Jumper Settings of Bus Addresses of th...

Page 400: ...e interface modules can only be exchanged in devices designed for panel and cubicle mounting and surface mounted devices with detached or without operator panel Devices in surface mounted housings with two tier terminals have to be retrofitted at our factory Use only interface modules that can be ordered in our facilities see also Appendix A1 For interfaces with bus capability ensure that the bus ...

Page 401: ... port is fix it is not a plug in module The order numbers of the exchange modules can be found in the Appendix A Ordering Information and Acces sories Accessories RS232 Interface Interface RS232 can be modified to interface RS485 and vice versa see Figure 3 22 and Figure 3 23 shows the printed circuit board C CPU and the interface modules The following figure shows the location of the jumpers of i...

Page 402: ...vices is always operated in the half duplex mode Please use the connection cable with order number 7XV5100 4 Jumper setting 2 3 is equally required when operating the RTD box in half duplex mode Jumper setting 1 2 This setting makes the modem signals available i e for a direct RS232 connection between the SIPROTEC 4 device and the modem this setting can be selected optionally We recommend to use a...

Page 403: ...ration of the terminating resistors at the Profibus FMS and DP DNP 3 0 and Modbus interfaces IEC 61850 Ethernet EN 100 The interface module does not feature any jumpers Its use does not require any hardware adaptations IEC 60870 5 103 redundant t 103 redundant 20070322 1 en_US Figure 3 25 Location of the jumpers for configuration of the terminating resistors Mounting and Commissioning 3 1 Mounting...

Page 404: ... not apply to the device version with detached operator panel Instead the plug connector of the ribbon cable connected to a 68pole plug connector on the rear side of the device must be plugged into the plug connector of the processor circuit board CPU The 7pole X16 connector belonging to the ribbon cable must be plugged behind the D subminiature female connector The plugging position is not releva...

Page 405: ...erminals or in case of direct connections the screws must be screwed in so far that the screw heads align with the terminal block before inserting the lugs and wires A ring lug must be centered in the connection chamber in such a way that the screw thread fits in the hole of the lug The SIPROTEC System Description provides information regarding maximum wire size torque bending radius and cable rel...

Page 406: ...bicle Mounting To install the device in a rack or cubicle two mounting brackets are required The ordering codes are stated in Appendix A Ordering Information and Accessories For housing size 1 3 Figure 3 29 and 1 2 Figure 3 30 there are 4 covers and 4 holes to secure the device for size 1 1 Figure 3 31 there are 6 covers and 6 securing holes 3 1 3 2 Mounting and Commissioning 3 1 Mounting and Conn...

Page 407: ...ted cross section but must be at least 2 5 mm2 0 098 in2 Connections are realized via the plug or screw terminals on the rear side of the device according to the circuit diagram When using forked lugs for screw terminals or in case of direct connections the screws must be screwed in so far that the screw heads align with the terminal block before inserting the lugs and wires A ring lug must be cen...

Page 408: ...kdisplay halb st 040403 1 en_US Figure 3 30 Installing a device in a rack or cubicle housing size 1 2 Mounting and Commissioning 3 1 Mounting and Connections 408 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 409: ...ew Connections according to the circuit diagram via screw terminals connections for optical fiber cable and electrical communication modules via the housings The SIPROTEC 4 System Description provides infor mation regarding maximum wire size torque bending radius and cable relief and must be observed Mounting with Detached Operator Panel CAUTION Be careful when removing or plugging the connector b...

Page 410: ...nel to the device Then plug the 68 pin connector of the cable belonging to the operator panel into the corresponding connection at the rear side of the device see SIPROTEC 4 System Description Mounting without Operator Panel For mounting the device proceed as follows Fasten device of housing size 1 2 with 6 screws and device of housing size 1 1 with 10 screws For dimen sions see for the Technical ...

Page 411: ...the cable the device is not ready for operation The connector of the dongle cable at the device must always be plugged in during operation einbau donglekabel 020313 kn 1 en_US Figure 3 32 Plugging the subminiature connector of the dongle cable into the control panel or cabinet door example housing size 1 2 Mounting and Commissioning 3 1 Mounting and Connections SIPROTEC 4 7SJ62 64 Manual 411 C5300...

Page 412: ...face Port C is used to communicate with the device via fixed wiring or a modem If the service interface is used as input for an RTD box verify the interconnection according to one of the connection examples given in the Appendix C Connection Examples System Interface When a serial interface of the device is connected to a control center the data connection must be checked A visual check of the ass...

Page 413: ...ctors see the table above Termination The RS485 interface is bus capable for half duplex operation with the signals A A and B B and the common reference potential C C GND Verify that only at the bus of the last device the terminating resistors are connected but not at the bus of the other devices The jumpers for the terminating resistors are located on the interface module RS485 see Figure 3 22 or...

Page 414: ...ating resistors must be connected to 7SJ62 64 see margin heading Termination For more information on the 7XV5662 6AD10 please refer to the enclosed device manual Check the trans mission parameters at the RTD box In addition to the baud rate and the parity the bus number is important too When connecting a 7XV5662 6AD10 RTD box set the following bus numbers at the RTD box Bus number 1 for RTD 1 to 6...

Page 415: ...operly Are the polarities of the voltage transformers correct Is the phase relationship of the voltage transformer connections correct Is the polarity for current input Ι4 correct if used Is the polarity for voltage input V4 correct only 7SJ623 7SJ624 7SJ625 7SJ626 7SJ64 and if used e g for broken delta winding or busbar voltage Check the functions of all test switches that are installed for the p...

Page 416: ...acitors Remove the voltage from the power supply by opening the protective switches Disconnect the measuring test equipment restore the normal power supply connections Apply voltage to the power supply Close the protective switches for the voltage transformers Verify that the voltage phase rotation at the device terminals is correct Open the protective switches for the voltage transformers and the...

Page 417: ...the device with secondary test equipment make sure that no other measurement quantities are connected and that the trip and close circuits to the circuit breakers and other primary switches are discon nected from the device DANGER Hazardous voltages during interruptions in secondary circuits of current transformers Non observance of the following measure will result in death severe personal injury...

Page 418: ...reakers disconnectors by means of the test function Non observance of the following measure will result in death severe personal injury or substantial property damage Equipment used to allow switching such as circuit breakers or disconnectors is to be checked only during commissioning Do not under any circumstances check them by means of the test function during real operation by transmitting or r...

Page 419: ... and refer to DANGER Click on Send in the function to be tested and check whether the transmitted information reaches the central station and shows the desired reaction Data which are normally linked via binary inputs first character are likewise indicated to the central power system with this procedure The function of the binary inputs itself is tested separately Exiting the Test Mode To end the ...

Page 420: ...perating functions for the device appear Click on Test the function selection appears in the right half of the screen Double click in the list view on Hardware Test The dialog box of the same name opens see the following figure Structure of the Test Dialog Box The dialog box is classified into three groups BI for binary inputs REL for output relays and LED for lightemit ting diodes On the left of ...

Page 421: ...rdware test function This for example means that a switching command coming from a protection function or a control command from the operator panel to an output relay cannot be executed Proceed as follows in order to check the output relay Ensure that the switching of the output relay can be executed without danger see above under DANGER Each output relay must be tested via the corresponding Sched...

Page 422: ...Update button is clicked for all hardware components with cyclical updating cycle time is 20 seconds if the Automatic Update 20sec field is marked Exiting the Test Mode To end the hardware test click on Close The dialog box is closed The device becomes unavailable for a brief start up period immediately after this Then all hardware components are returned to the operating conditions determined by ...

Page 423: ...the external protection Binary input functions 50BF ext SRC FNo 1431 in spontaneous or fault annunciations After every start the message 50BF ext Pickup FNo 1457 must appear in the spontaneous or fault annunciations After time expiration TRIP Timer address 7005 tripping command of the breaker failure protection Open the circuit breaker again Busbar Tripping For testing the distribution of the trip...

Page 424: ...e quantities measured by an independent source as primary and secondary quantities If the measured values are not plausible the connection must be checked and corrected after the line has been isolated and the current transformer circuits have been short circuited The measurements must then be repeated Phase Rotation The phase rotation must correspond to the configured phase rotation in general a ...

Page 425: ...apply Please note that the blocking function can either be configured for the pickup current connected open circuit system or the pickup current missing closed circuit system For open circuit system the following tests are to be proceeded The feeder protection relays of all associated feeders must be in operation At the beginning no auxiliary voltage is fed to the reverse interlocking system A tes...

Page 426: ...ication as to whether the measured values have the correct polarity If both the active power and the reactive power have the wrong sign and 1108 P Q sign is set to not reversed the polarity according to address 201 CT Starpoint must be checked and corrected However power measurement itself is not able to detect all connection errors For this reason directional messages should be generated by means...

Page 427: ...USTM The angle is set in direction busbar viewed from the feeder An example is shown in Subsection 2 21 1 SYNC Function group 1 If necessary different transformation ratios of the transformers on the busbar and the feeder may have to be considered under address Balancing V1 V2 The synchronism and voltage check must be switched under address 6x01 Synchronizingx ON A further aid for checking in the ...

Page 428: ... If there is the VT mcb for the busbar voltage is not allocated Check whether this is the required state alternatively check the binary input FAIL BUS VT 6510 Close the VT mcb of the busbar voltage again Open the circuit breaker For the synchrocheck the program SYNC V1 V2 is set to YES address 6x07 and SYNC V1 V2 is set to NO address 6x08 Via binary input 170 0043 25 Sync req initiate the measurin...

Page 429: ...nt transformers looking from the busbar of the feeder to be checked Cables are grounded on the remote end sealing end Remove the protective grounding of the line Connect a circuit breaker to the line end that is to be tested Check the direction indication LED if allocated The faulty phase FNo 1272 for A or 1273 for B or 1274 for C and the direction of the line i e SensGnd Forward FNo 1276 must be ...

Page 430: ...ings of the voltage transformer is provided the corresponding phase is disconnected on the secondary side see Figure 3 40 Only the current of the trans former which is not provided with voltage in its voltage path is fed into the current path If the line carries resistive inductive load the protection is subject to the same conditions as exist during a ground fault in line direction The directiona...

Page 431: ...0 Polarity testing for ΙN example with current transformers configured in a Holmgreen connec tion VTs Wye connected Checking the Temperature Detection After the termination of the RS485 port and the setting of the bus address have been verified according to Section 3 2 Checking Connections the measured temperature values and thresholds can be checked 3 3 13 Mounting and Commissioning 3 3 Commissio...

Page 432: ...8 113 497834 96 085879 0 32 100 120 100 10 50 105 551528 126 661834 103 902525 20 68 111 236449 133 483738 107 7935 30 86 117 055771 140 466925 111 672925 40 104 123 011173 147 613407 115 5408 50 122 129 105 154 926 119 397125 60 140 135 340259 162 408311 123 2419 70 158 141 720613 170 064735 127 075125 80 176 148 250369 177 900442 130 8968 90 194 154 934473 185 921368 134 706925 100 212 161 7785 ...

Page 433: ... of the synchronism check Select the next lower settable value messung der ls eigenzeit 260602 kn 1 en_US Figure 3 41 Measuring the circuit breaker closing time Trip Close Tests for the Configured Operating Devices Control by Local Command If the configured operating devices were not switched sufficiently in the hardware test already described all configured switching devices must be switched on a...

Page 434: ... recording parameter Osc Fault Rec must be configured to Enabled in the Functional Scope Apart from the capability of storing fault recordings via pickup of the protection func tion the 7SJ62 64 also has the capability of initiating a measured value recording via the operator program DIGSI the serial interface or binary input In the latter case the information Trig Wave Cap must be allo cated to a...

Page 435: ...ediately During recording a report is given in the left part of the status bar Bar segments additionally indicate the progress of the procedure The SIGRA or the Comtrade Viewer program is required to view and analyse the oscillographic data Mounting and Commissioning 3 3 Commissioning SIPROTEC 4 7SJ62 64 Manual 435 C53000 G1140 C207 8 Edition 08 2016 ...

Page 436: ...tion The counters in the switching statistics should be reset to the values that were existing prior to the testing see also SIPROTEC 4 System Description Reset the counter of the operational measured values e g operation counter if available under MAIN MENU Measured Values Reset also see SIPROTEC 4 System Description Press the ESC key several times if necessary to return to the default display Th...

Page 437: ...te time characteristic 469 4 10 Negative Sequence Protection inverse time characteristics 470 4 11 Motor Starting Time Supervision 476 4 12 Motor Restart Inhibit 477 4 13 Load Jam Protection 478 4 14 Frequency Protection 479 4 15 Undervoltage controlled reactive power protection 27 Q 480 4 16 Thermal Overload Protection 482 4 17 Ground Fault Detection Sensitive Insensitive 484 4 18 Intermittent Gr...

Page 438: ... input for sensitive ground fault detection see ordering data in Appendix Voltage Inputs Nominal Voltage 100 V to 225 V adjustable Measuring Range 0 V to 170 V 7SJ62 0 V to 200 V 7SJ64 Burden at 100 V Approx 0 3 VA AC Voltage Input Overload Capacity thermal rms 230 V continuous Auxiliary Voltage Direct Voltage Power supply via integrated converter Rated auxiliary DC VAux DC 24 V 48 V DC 60 V 110 V...

Page 439: ... Approx 12 VA Approx 23 VA 7SJ647 Approx 16 VA Approx 33 VA Bridging Time for Failure Short Circuit in not energized operation 200 ms Binary Inputs and Outputs Binary Inputs Variant Number 7SJ621 8 configurable 7SJ622 11 configurable 7SJ623 8 configurable 7SJ624 11 configurable 7SJ625 8 configurable 7SJ626 11 configurable 7SJ640 7 configurable 7SJ641 15 configurable 7SJ642 20 configurable 7SJ645 3...

Page 440: ...622 4 6 3 1 7SJ623 6 8 3 1 7SJ624 4 6 3 1 7SJ625 6 3 7SJ626 4 3 7SJ640 5 1 7SJ641 12 2 7SJ642 8 1 4 7SJ645 11 1 8 7SJ647 21 1 8 Switching Capability MAKE 1000 W VA Switching Capability BRAKE 30 VA 40 W resistive 25 W at L R 50 ms Switching Voltage DC 250 V AC 250 V DC 250 V AC 250 V admissible current per contact continuous 5 A admissible current per contact close and hold 30 A for 0 5 s NO contac...

Page 441: ...e non isolated RS232 9 pole DSUB port for connecting a personal computer PELV Operation With DIGSI Transmission speed min 4 800 Bd max 115 200 Bd Factory Setting 115 200 Baud Parity 8E1 Bridgeable distance 15 m Service Modem Interface Connection isolated interface for data transfer Operation With DIGSI Transmission Speed min 4 800 baud max 115 200 baud Factory setting 38 400 Baud RS232 RS485 FO ac...

Page 442: ...est Voltage PELV 500 VAC 50 Hz Maximum Distance of Transmission 3 280 feet 1 000 m Fiber Optical Link FO FO connector type ST connector Connection for flush mounted casing Rear panel mounting location D Connection for surface mounted casing at the housing mounted case on the case bottom Optical Wavelength λ 820 nm Laser Class 1 according to EN 60825 1 2 using glass fiber 50 125 μm or using glass f...

Page 443: ...glass fiber 62 5 125 μm Transmission Speed min 1 200 baud max 115 200 baud Factory setting 9 600 Bd Maximum Distance of Transmission max 0 93 miles 1 5 km Character Idle State Configurable factory setting Light off IEC 60870 5 103 redundant RS485 isolated interface for redundant data transfer to a master terminal Connection for flush mounted casing rear panel mounting location B RJ45 subminiature ...

Page 444: ...on the case bottom Test Voltage PELV AC 500 V 50 Hz Transmission Speed up to 19 200 Bd Maximum Distance of Transmission max 0 62 miles 1 km DNP3 0 MODBUS FO FO connector type ST Connector Receiver Transmitter Connection for flush mounted casing Rear panel mounting location B Connection for surface mounted casing not available Transmission Speed up to 19 200 Bd Optical Wavelength λ 820 nm Laser Cla...

Page 445: ...V 31 V VILow 1 0 V at ΙILow 0 25 mA 1 4 V at ΙILow 0 25 mA 1 9 V at ΙILow 0 25 mA ΙIHigh 4 5 mA to 9 4 mA 4 5 mA to 9 3 mA 4 5 mA to 8 7 mA RI 890 Ω at VI 4 V 1930 Ω at VI 8 7 V 3780 Ω at VI 17 V 640 Ω at VI 6 V 1700 Ω at VI 15 8 V 3560 Ω at VI 31 V Electrical Tests Regulations Standards IEC 60255 product standards ANSI IEEE Std C37 90 0 1 2 UL 508 DIN 57435 Part 303 for more standards see also in...

Page 446: ...rgy surge voltages SURGE IEC 61000 4 5 Installation Class 3 Impulse 1 2 50 μ Auxiliary voltage common mode 2 kV 12 Ω 9 μF diff mode 1 kV 2 Ω 18 μF Measuring inputs binary inputs and relay outputs common mode 2 kV 42 Ω 0 5 µF diff mode 1 kV 42 Ω 0 5 µF HF on lines amplitude modulated IEC 61000 4 6 Class III 10 V 150 kHz to 80 MHz 80 AM 1 kHz Power system frequency magnetic field IEC 61000 4 8 Class...

Page 447: ...bis 8 Hz 1 5 mm amplitude vertical axis 8 Hz bis 35 Hz 1 g acceleration horizontal axis 8 Hz bis 35 Hz 0 5 g acceleration vertical axis Frequency sweep 1 octave min 1 cycle in 3 orthogonal axes Vibration and Shock Stress during Transport Standards IEC 60255 21 and IEC 60068 Oscillation IEC 60255 21 1 Class 2 IEC 60068 2 6 Sinusoidal 5 Hz to 8 Hz 7 5 mm amplitude 8 Hz to 150 Hz 2 g acceleration fre...

Page 448: ...nditions The protective device is designed for use in an industrial environment and an electrical utility environment Proper installation procedures should be followed to ensure electromagnetic compatibility EMC In addition the following is recommended All contacts and relays that operate in the same cubicle cabinet or relay panel as the numerical protec tive device should as a rule be equipped wi...

Page 449: ...anel 1 1 12 5 kg 7SJ641 2 F G in housing without operator panel 1 2 17 4 lb or 8 kg 7SJ645 F G in housing without operator panel 1 1 26 45 lb or 12 kg 7SJ647 F G for housing without operator panel 1 1 12 5 kg 7SJ640 D E in flush mounting housing 1 3 11 02 lb or 5 kg 7SJ641 2 D E in flush mounting housing 1 2 13 23 lb or 6 kg 7SJ645 D E in flush mounting housing 1 1 22 05 lb or 10 kg 7SJ647 D E for...

Page 450: ...rush restraint with restraint 1 period First harmonic rms value for 2 x setting value for 10 x setting value Instantaneous value for 2 x setting value for 10 x setting value approx 30 ms approx 20 ms approx 16 ms approx 16 ms Dropout Times First harmonic rms value Instantaneous value approx 30 ms approx 40 ms Dropout Ratio Dropout ratio for first harmonic rms value instantaneous value approx 0 95 ...

Page 451: ...monic up to 10 5th harmonic 1 1 Transient overreaction during fundamental harmonic measuring procedure for τ 100 ms with full displacement 5 Technical Data 4 2 Definite time Overcurrent Protection SIPROTEC 4 7SJ62 64 Manual 451 C53000 G1140 C207 8 Edition 08 2016 ...

Page 452: ...n 0 05 s to 3 20 s or disabled Increments 0 01 s Time multiplier D for 51 51N for ANSI Kennli nien 0 50 s to 15 00 s or disabled Increments 0 01 s Undervoltage threshold 51V V for for release of 51 10 0 V to 125 0 V Increments 0 1V Trip Time Curves acc to IEC Acc to IEC 60255 3 or BS 142 Section 3 5 2 see also Figure 4 1 and Figure 4 2 The tripping times for Ι Ιp 20 are identical with those for Ι ...

Page 453: ...lue Ιp Toleranzen Anrege Rückfallschwellen Ιp ΙEp 2 vom Einstellwert bzw 10 mA für ΙN 1 A oder 50 mA für ΙN 5 A Anregezeit für 2 Ι Ιp 20 5 vom Sollwert 2 Stromtoleranz bzw 30 ms Rückfallzeit für Ι Ιp 0 90 5 vom Sollwert 2 Stromtoleranz bzw 30 ms Influencing Variables for Pickup and Dropout Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 Temperatur im Bereich 5 C Θamb 131 00 F 55 C 0 5 1...

Page 454: ...ark 170502 wlk 1 en_US Figure 4 1 Dropout time and trip time curves of the inverse time overcurrent protection acc to IEC Technical Data 4 3 Inverse time Overcurrent Protection 454 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 455: ...eit 170502 wlk 1 en_US Figure 4 2 Dropout time and trip time curves of the inverse time overcurrent protection acc to IEC Technical Data 4 3 Inverse time Overcurrent Protection SIPROTEC 4 7SJ62 64 Manual 455 C53000 G1140 C207 8 Edition 08 2016 ...

Page 456: ...read 3Ι0p instead of Ιp and T3Ι0p instead of Tp for ground fault read ΙEp instead of Ιp and TΙEp instead of Tp Anregeschwelle ca 1 10 Ιp Dropout Time Characteristics with Disk Emulation acc to ANSI IEEE Acc to ANSI IEEE see also Figure 4 3 bis Figure 4 6 Technical Data 4 3 Inverse time Overcurrent Protection 456 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 457: ...g value Ιp Tolerances Pickup dropout thresholds Ιp ΙEp 2 of setting value or 10 mA for ΙNom 1 A or 50 mA for ΙNom 5 A Trip time for 2 Ι Ιp 20 5 of reference calculated value 2 current tolerance or 30 ms Dropout time forΙ Ιp 0 90 5 of reference value 2 or 30 ms Influencing Variables for Pickup and Dropout Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 Temperature in range 23 00 F 5 C Θa...

Page 458: ...ure for τ 100 ms with full displacement 5 ausl rueckfallkennl amz ansi inv short 170502 wlk 1 en_US Figure 4 3 Dropout time and trip time curves of the inverse time overcurrent protection acc to ANSI IEEE Technical Data 4 3 Inverse time Overcurrent Protection 458 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 459: ...170502 wlk 1 en_US Figure 4 4 Dropout time and trip time curves of the inverse time overcurrent protection acc to ANSI IEEE Technical Data 4 3 Inverse time Overcurrent Protection SIPROTEC 4 7SJ62 64 Manual 459 C53000 G1140 C207 8 Edition 08 2016 ...

Page 460: ...m 170502 wlk 1 en_US Figure 4 5 Dropout time and trip time curves of the inverse time overcurrent protection acc to ANSI IEEE Technical Data 4 3 Inverse time Overcurrent Protection 460 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 461: ...170502 wlk 1 en_US Figure 4 6 Dropout time and trip time curves of the inverse time overcurrent protection acc to ANSI IEEE Technical Data 4 3 Inverse time Overcurrent Protection SIPROTEC 4 7SJ62 64 Manual 461 C53000 G1140 C207 8 Edition 08 2016 ...

Page 462: ...uence quantities 3V0 3Ι0 Forward Range Vref rot 86 Rotation of the reference voltage Vref ot 180 to 180 Increments 1 Dropout difference 2 Directional Sensitivity VN 2 5 V displacement voltage measured 3V0 5 V displacement voltage calculated Polarization with negative sequence quantities 3V2 3Ι2 Forward Range Vref rot 86 Rotation of the reference voltage Vref rot 180 to 180 Increments 1 Dropout dif...

Page 463: ...Angle faults for phase and ground faults 1 electrical Influencing Variables Frequency Influence With no memory voltage approx 1 in range 25 Hz to 50 Hz Technical Data 4 4 Directional Overcurrent Protection SIPROTEC 4 7SJ62 64 Manual 463 C53000 G1140 C207 8 Edition 08 2016 ...

Page 464: ...A for ΙNom 5 A at least one phase current 50 Hz and 100 Hz 125 mA Lower Function Limit ground for ΙNom 1 A Ground current 50 Hz and 100 Hz 25 mA for ΙNom 5 A Ground current 50 Hz and 100 Hz 125 mA Upper Function Limit configurable for ΙNom 1 A 0 30 A bis 25 00 A increments 0 01 A for ΙNom 5 A 1 50 A bis 125 00 A increments 0 01 A Crossblock Crossblock ΙA ΙB ΙC ON OFF 4 5 Technical Data 4 5 Inrush ...

Page 465: ...ng Ranges Increments Current Control for ΙN 1 A 0 04 A to 1 00 A Increments 0 01 A for ΙN 5 A 0 20 A to 5 00 A Time Until Changeover To Dynamic Settings TCB Open 0 s to 21600 s 6 h Increments 1 s Period Dynamic Settings are Effective After a Reclo sure TActive 1 s to 21600 s 6 h Increments 1 s Fast Reset Time TStop 1 s to 600 s 10 min or fast reset inactive Increments 1 s Dynamic Settings of Picku...

Page 466: ... of nominal device current Operating Times Pickup Dropout Times Frequency Pickup Time 50 Hz 60 Hz minimum 14 ms 13 ms maximum 35 ms 35 ms Dropout time approx 25 ms 22 ms Dropout Ratios Current Elements approx 0 95 for Ι ΙNom 0 5 Tolerances Currents 3 of setting value or 1 of nominal current at ΙNom 1 A or 5 A 5 of setting value or 3 of nominal current at ΙNom 0 1 A Times 1 of setting value or 10 m...

Page 467: ...s 59 1 59 2 Measured quantity used with three phase connection Mitsystem der Spannungen Gegensystem der Spannungen größte Leiter Leiter Spannung größte Leiter ground Spannung Measured quantity used with single phase connection Connected single phase phase togroundvoltage or phase to phase voltage Connection of phase to ground voltages Evaluation of phase to ground voltages Evaluation of phase to p...

Page 468: ...0 ms approx 50 ms approx 60 ms Tolerances Pickup Voltage Limits 7SJ64 0 5 of setting value or 1 V 7SJ62 1 of setting value or 1 V Delay times T 1 of setting value or 10 ms Influencing Variables Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 Temperature in range 23 00 F 5 C Θamb 131 00 F 55 C 0 5 10 K Frequency in range 25 Hz to 70 Hz 1 Harmonics up to 10 3rd harmonic up to 10 5th harmo...

Page 469: ...up Times Dropout Times approx 35 ms approx 35 ms Dropout Ratio Characteristic 46 1 46 2 approx 0 95 for Ι2 ΙNom 0 3 Tolerances Pickup values 46 1 46 2 ΙNom 1 A 3 of setting value or 10 mA ΙNom 5 A 3 of setting value or 50 mA Time Delays 5 of reference calculated value 2 current tolerance or 30 ms Influencing Variables for Pickup Values Power supply direct voltage in range 0 8 VPC VPSNom 1 15 1 Tem...

Page 470: ...iplier DI2p ANSI 0 50 s to 15 00 s or disabled Increments 0 01 s Functional Limit Functional Limit for ΙNom 1 A all phase currents 10 A for ΙNom 5 A all phase currents 50 A Trip Time Curves acc to IEC See also Figure 4 7 The trip times for Ι2 Ι2p 20 are identical to those for Ι2 Ι2p 20 Pickup Threshold approx 1 10 Ι2p 4 10 Technical Data 4 10 Negative Sequence Protection inverse time characteristi...

Page 471: ...Pickup Threshold Ι2p 3 of setting value or 10 mA for ΙNom 1 A or 50 mA with ΙNom 5 A Time for 2 Ι Ι2p 20 5 of reference calculated value 2 current tolerance or 30 ms Dropout Time Curves with Disk Emulation acc to ANSI Representation of the possible dropout time curves see Figure 4 8 and Figure 4 9 each on the left side of the figure Technical Data 4 10 Negative Sequence Protection inverse time cha...

Page 472: ...om 5 A 5 of reference calculated value 2 current tolerance or 30 ms Influencing Variables for Pickup Values Power supply direct voltage in range 0 8 0 8 VPS VPSNom 1 15 1 Temperature in range 23 00 F 5 C Θamb 131 00 F 55 C 0 5 10 K Frequency in range 25 Hz to 70 Hz 1 Harmonics up to 10 3rd harmonic up to 10 5th harmonic 1 1 Transient overreaction for τ 100 ms with full displacement 5 Technical Dat...

Page 473: ...1 en_US Figure 4 7 Trip time characteristics of the inverse time negative sequence element 46 TOC acc to IEC Technical Data 4 10 Negative Sequence Protection inverse time characteristics SIPROTEC 4 7SJ62 64 Manual 473 C53000 G1140 C207 8 Edition 08 2016 ...

Page 474: ...en_US Figure 4 8 Dropout time and trip time characteristics of the inverse time unbalanced load stage acc to ANSI Technical Data 4 10 Negative Sequence Protection inverse time characteristics 474 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 475: ... en_US Figure 4 9 Dropout time and trip time characteristics of the inverse time unbalanced load stage acc to ANSI Technical Data 4 10 Negative Sequence Protection inverse time characteristics SIPROTEC 4 7SJ62 64 Manual 475 C53000 G1140 C207 8 Edition 08 2016 ...

Page 476: ...m motor TMax STARTUP W 0 5 s to 180 0 s or disabled Increments 0 1 s Maximum startup time with cold motor TMax STARTUP K 0 to 80 or disabled Increments 1 Trip Curve Dropout Ratio Dropout ratio approx 0 95 Tolerances Pickup Threshold 2 of setting value or 10 mA for ΙNom 1 A or 50 mA for ΙNom 5 A Time Delay 5 or 30 ms Influencing Variables Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 T...

Page 477: ...n cold and warm startups nCOLD nWARM 1 to 2 Increments 1 Extension of Time Constant at stop kτ STILLSTAND 0 2 to 100 0 Increments 0 1 Extension of Time constant at running kτ BETRIEB 0 2 to 100 0 Increments 0 1 Restart Threshold Where ΘRESTART Temperature limit below which restarting is possible kD k factor for the rotor ΙSTARTUP Startup current ΙMOTNom Motor nominal current Tstart max Max startup...

Page 478: ...ckup time approx 55 ms Dropout time approx 30 ms Dropout ratio Dropout ratio tripping stage approx 0 95 Dropout ratio warning stage approx 0 95 Tolerances Pickup threshold for ΙNom 1 A 2 of setting value or 10 mA for ΙNom 5 A 2 of setting value or 50 mA Time delay 1 or 10 ms Influencing Variables Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 Temperature in range 23 00 F 5 C Θamb 131 0...

Page 479: ...gle phase connection single phase to ground or phase tophase Voltage 10 V to 150 V Increments 1 V Times Pickup times 81O 81U approx 80 ms Dropout times 81O 81U approx 75 ms Dropout Ratio Dropout Ratio for Undervoltage Blocking approx 1 05 Tolerances Pickup Frequencies 81 O or 81U Undervoltage blocking Time Delays 81 O or 81 U 5 mHz at V VNom f fN 10 mHz at V VNom 3 of setting value or 1 V 1 of set...

Page 480: ...s Power measurement 3 phase for ΙNom 1 A Positive sequence system current 0 03 A for ΙNom 5 A Positive sequence system current 0 15 A Times Pickup times QU protection typical maximum small signals and thresholds approx 120 ms approx 350 ms Binary input approx 20 ms Dropout times QU protection typical maximum 50 ms 350 ms Binary input 10 ms Tolerances Pickup thresholds Current for ΙNom 1 A 1 of set...

Page 481: ...direct voltage in the range from 0 8 VPS VPSNom 1 15 1 Temperature in the range from 23 00 F 5 C Θamb 131 00 F 55 C 0 5 10 K Frequency in the range from 25 Hz to 70 Hz 1 Harmonics up to 10 3rd harmonic up to 10 5th harmonic 1 1 Technical Data 4 15 Undervoltage controlled reactive power protection 27 Q SIPROTEC 4 7SJ62 64 Manual 481 C53000 G1140 C207 8 Edition 08 2016 ...

Page 482: ...ncrements 1 C Trip Characteristic Formula for primary values Trip Characteristic curve for Ι k ΙNom 8 with t Trip time in minutes τth Heating up time constant Ιn Actual load current Ιpre Preload current k Setting factor per IEC 60255 8 ΙNom Nominal current for the protected object Dropout Ratios Θ ΘTrip Θ ΘAlarm Ι ΙAlarm Drops out with ΘAlarm approx 0 99 approx 0 97 Tolerances Referring to k ΙNom ...

Page 483: ...requency in range 25 Hz to 70 Hz 1 ausloesekennlinie ueberlast 1111203 he 1 en_US Figure 4 10 Trip time curves for the thermal overload protection 49 Technical Data 4 16 Thermal Overload Protection SIPROTEC 4 7SJ62 64 Manual 483 C53000 G1140 C207 8 Edition 08 2016 ...

Page 484: ...to 100 V Increments 1 V VPHASE MAX Healthy Phase 10 V to 100 V Increments 1 V Measurement Tolerance acc to VDE 0435 Part 303 3 of setting value or 1 V Ground Fault Pickup for All Types of Ground Faults Definite Time Characteristic Pickup current 50Ns 2 PICKUP for sensitive transformer for normal 1 A transformer for normal 5 A transformer 0 001 A to 1 500 A 0 05 A to 35 00 A 0 25 A to 175 00 A Incr...

Page 485: ...etting value or 1 mA Operating Time Tolerance in Linear Range 7 of reference value for 2 Ι Ι51Ns 20 2 current tolerance or 70 ms Ground Fault Pickup for All Types of Ground Faults Inverse Time Characteristic Logarithmic inverse Pickup Current 50Ns For sensitive transformer For normal 1 A transformer For normal 5 A transformer 0 001 A to 1 400 A 0 05 A to 4 00 A 0 25 A to 20 00 A Increments 0 001 A...

Page 486: ...05 A to 20 00 A 0 25 A to 100 00 A Increments 0 001 A Increments 0 01 A Increments 0 05 A Knee point time 51Ns T knee 0 20 s to 100 00 s Increments 0 01 s Pickup current 51Ns I T knee for sensitive transformer for normal 1 A transformer for normal 5 A transformer 0 003 A to 0 650 A 0 05 A to 17 00 A 0 25 A to 85 00 A Increments 0 001 A Increments 0 01 A Increments 0 05 A Maximum time 51Ns T max 0 ...

Page 487: ...tion acc to IEC Acc to IEC 60255 3 or BS 142 Section 3 5 2 see also Figure 4 1 and Figure 4 2 The dropout time curves apply to Ι ΙEEp 0 90 Pickup Threshold IEC IEC without disk emulation approx 1 05 setting value ΙEEp for ΙEEp ΙN 0 3 this corresponds to approx 0 95 pickup value IEC with disk emulation approx 0 90 setting value ΙEEp Technical Data 4 17 Ground Fault Detection Sensitive Insensitive S...

Page 488: ...or 30 ms Trip Time Curves acc to ANSI Acc to ANSI IEEE see also Figure 4 3 to Figure 4 6 The tripping times for Ι ΙEEp 20 are identical with those for Ι ΙEEp 20 Pickup threshold approx 1 10 ΙEEp Dropout Time Curves with Disk Emulation acc to ANSI IEEE Acc to ANSI IEEE see also Figure 4 3 bis Figure 4 6 Technical Data 4 17 Ground Fault Detection Sensitive Insensitive 488 SIPROTEC 4 7SJ62 64 Manual ...

Page 489: ... Dropout time for Ι ΙEEp 0 90 5 reference value 2 or 30 ms Influencing Variables Auxiliary DC voltage within range 0 8 VH VHN 1 15 1 Temperature in range 5 C 41 F Θamb 55 C 131 F 0 5 10 K Frequency in range 25 Hz to 70 Hz 1 Harmonics up to 10 3rd harmonic up to 10 5th harmonic 1 1 Note When using the sensitive transformer the linear range of the measuring input for the sensitive ground fault detec...

Page 490: ...0 ϕ Measurement Direction determination ΙN and VN measured 3Ι0 and 3U0 calculated Measuring principle V0 Ι0 phase angle measurement 50Ns 1 element Minimum voltage 50Ns 1 Vmin V0 measured 7SJ64 V0 measured 7SJ62 3V0 calculated 0 4 V to 50 V 1 8 V to 50 V 10 V to 90 V Increments 0 1 V Increments 0 1 V Increments 1 V Phase angle 50Ns 1 Phi 180 to 180 Increments 1 Delta phase angle 50Ns 1 DeltaPhi 0 t...

Page 491: ...rents greater than 1 6 A correct directionality can no longer be guaranteed Logarithmic inverse trip time characteristic kennlinie amz log invers 050803 1 en_US Figure 4 11 Trip time characteristics of inverse time ground fault protection with logarithmic inverse time characteristic Logarithmic inverse t 51Ns Tmax 51Ns TIME DIAL 51Ns Ι 51Ns PICKUP Note For Ι 51Ns PICKUP 35 the time applies for Ι 5...

Page 492: ...US Figure 4 12 Trip time characteristics of the inverse time ground fault protection with logarithmic inverse time characteristic with knee point example for 51Ns 0 004 A Technical Data 4 17 Ground Fault Detection Sensitive Insensitive 492 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 493: ...t Time for Accumulation Tres 1 s to 600 s Increments 1 s Number of Pickups for Intermittent Ground Fault 2 to 10 Increments 1 Times Pickup Times Current 1 25 x Pickup Value for 2 Pickup Value Dropout Time without extension time approx 30 ms approx 22 ms approx 22 ms Tolerances Pickup threshold Ιie for ΙNom 1 A 3 of setting value or 10 mA for ΙNom 5 A 3 of setting value or 50 mA Times TV Tsum Tres ...

Page 494: ...rements 1 Dropout ratio Dropout ratio Vgnd 3V0 0 95 or pickup value 0 6 V Tolerances Measurement tolerance Vgnd 3V0 3 of setting value Times 1 of setting value or 10 ms Influencing Variables Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 Temperature in range 23 00 F 5 C Θamb 131 00 F 55 C 0 5 K 4 19 Technical Data 4 19 Directional intermittent ground fault protection 494 SIPROTEC 4 7SJ...

Page 495: ... Blocking Duration after reclosuree TBlocking Time 0 50 s to 320 00 s Increments 0 01 s Blocking Duration after Dynamic Blocking TBLK DYN 0 01 s to 320 00 s Increments 0 01 s Start Signal Monitoring Time TStart Mnitor 0 01 s to 320 00 s oder Increments 0 01 s Circuit Breaker Monitoring Time TCB Monitor 0 10 s to 320 00 s Increments 0 01 s Maximum Dead Time Extension TDead Exten 0 50 s to 320 00 s ...

Page 496: ...to 3 0000 Ω Meile Increments 0 0001 For the remaining parameters refer to the Power System Data 2 When configuring mixed lines the reactance value must be set for each line section A1 to A3 Measurement Tolerance acc to VDE 0435 Part 303 for Sinusoidal Measurement Quantities 2 0 fault location without intermediate infeed 30 φK 90 and VK VNom 0 1 and ΙK ΙNom 1 0 1 Homogeneous lines or correctly conf...

Page 497: ... Start Dropout Time included in time delay included in time delay approx 25 ms 1 Tolerances Pickup thresholds 50 1 BF 50N 1 BF 2 of setting value or 10 mA for ΙNom 1 A or 50 mA for ΙNom 5 A Time Delay TRIP Timer 1 bzw 20 ms Influencing Variables for Pickup Values Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 Temperature in range 23 00 F 5 C Θamb 131 00 F 55 C 0 5 10 K Frequency in ran...

Page 498: ... Power P Q for ΙNom 1 A 0 5 to 10000 W Increments 0 1 W for ΙNom 5 A 2 5 to 50000 W Power factor cosϕ 0 99 to 0 99 Increments 0 01 Frequency for fNom 50 Hz for fNom 60 Hz 40 0 to 60 0 Hz 50 0 to 70 0 Hz Increments 0 01 Hz Increments 0 01 Hz Frequency change df dt 0 10 to 20 00 Hz s Increments 0 01 Hz s Voltage change dV dt 4 V s to 100 V s Increments 1 V s Dropout ratio element 1 01 to 3 00 Increm...

Page 499: ...r 2 times pickup value approx 220 ms Binary input approx 20 ms Dropout times Current voltage phase quantities 20 ms Current voltage symmetrical components 30 ms Power typical maximum 50 ms 350 ms Power factor 300 ms Frequency 100 ms Frequency change 200 ms Voltage change 220 ms Binary input 10 ms Tolerances Pickup thresholds Current for ΙNom 1 A 0 5 of setting value or 10 mA for ΙNom 5 A 0 5 setti...

Page 500: ...ting value or 10 ms Influencing Variables for Pickup Values Power supply direct voltage in range 0 8 VPS VPSNom 1 15 1 Temperature in range 23 00 F 5 C Θamb 131 00 F 55 C 0 5 10 K Frequency in range 25 Hz to 70 Hz 1 Harmonics up to 10 3rd harmonic up to 10 5th harmonic 1 1 Technical Data 4 23 Flexible Protection Functions 500 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 501: ...fferences V2 V1 V2 V1 Tolerance 0 5 V to 50 0 V phase tophase 1 V Increments 0 1 V Frequency Difference f2 f1 f2 f1 Tolerance for 7SJ64 Tolerance for 7SJ62 0 01 Hz to 2 00 Hz 15 mHz 20 mHz Increments 0 01 Hz Angle Difference α2 α1 α2 α1 2 to 80 Increments 1 Tolerance 2 Max angle error 5 for Δf 1 Hz 10 for Δf 1 Hz Circuit breaker Circuit breaker operating time 0 01 s to 0 60 s Increments 0 01 s Thr...

Page 502: ...nce 1 in kV primary in V secondary or in VNom 10 to 120 of VNom 1 of measured value or 0 5 VNom Frequency of the voltage V1 Range Tolerance 1 f1 in Hz fNom 5 Hz 20 mHz Frequency of the voltage V2 Range Tolerance 1 f2 in Hz fNom 5 Hz 20 mHz Voltage difference V2 V1 Range Tolerance 1 in kV primary in V secondary or in VN 10 bis 120 of VN 1 of measured value or 0 5 VN Frequency difference f2 f1 Range...

Page 503: ...ature measuring points Temperature Unit C or F adjustable Measuring Range for Pt 100 for Ni 100 for Ni 120 199 C to 800 C 326 F bis 1472 F 54 C to 278 C 65 F bis 532 F 52 C to 263 C 62 F bis 505 F Resolution 1 C oder 1 F Tolerance 0 5 of measured value 1 digit Indication Thresholds for each measuring point Stage 1 50 C to 250 C 58 F to 482 F oder no message Increments 1 C Increments 1 F Stage 2 50...

Page 504: ...X X X DI_GET_STATUS Decode double point indication X X X X DI_SET_STATUS Generate double point indication with status X X X X D_FF D Flipflop X X X D_FF_MEMO Status Memory for Restart X X X X DI_TO_BOOL Double Point to Boolean conver sion X X X DINT_TO_REAL Adaptor X X X X DIST_DECODE Conversion double point indication with status to four single indica tions with status X X X X DIV Division X X X ...

Page 505: ...puts it as a Boolean value Name Type Description Default function Input BO UINT Number of output relay 0 Number STATE BOOL State of the output relay FALSE Task levels Recommendation This block should be placed in the MW_BEARB level where it is cyclically updated Note In the task levels PLC1_BEARB and PLC_BEARB changes of the output relay are no trigger events for these levels These levels are only...

Page 506: ... is used to convert two Boolean inputs X1 and X2 to INTEGER FALSE 0 TRUE 1 and add them The addition result is available at output Y In the context menu of the block you can increase the number of inputs to a maximum of 120 General Limits Description Limit Comment Maximum number of all CFC charts considering all task levels 32 If the limit is exceeded the device rejects the parameter set with an e...

Page 507: ...uation The limit does not apply to the LONG_TIMER 3 The time values for the blocks TIMER and TIMER_SHORT must not be selected shorter than the time resolu tion of the device of 10 ms as then the blocks will not then start with the starting pulse Maximum Number of TICKS in the Task Levels Task Level Limit in TICKS 1 MW_BEARB Measured Value Processing 10000 PLC1_BEARB Slow PLC Processing 12000 PLC_B...

Page 508: ...rol commands BOOL_TO_CO 5 BOOL_TO_IC 5 CMD_INF 4 CMD_INF_EXE 4 CMD_CHAIN 34 CMD_CANCEL 3 LOOP 8 Type converter BOOL_TO_DI 5 BUILD_DI 5 DI_TO_BOOL 5 DM_DECODE 8 DINT_TO_REAL 5 DIST_DECODE 8 UINT_TO_REAL 5 REAL_TO_DINT 10 REAL_TO_UINT 10 Comparison COMPARE 12 LOWER_SETPOINT 5 UPPER_SETPOINT 5 LIVE_ZERO 5 ZERO_POINT 5 Metered value COUNTER 6 Time and clock pulse TIMER 5 TIMER_LONG 5 TIMER_SHORT 8 Tec...

Page 509: ... in Matrix In addition to the defined preassignments indications and measured values can be freely routed to buffers preconfigurations can be removed Technical Data 4 26 User defined Functions CFC SIPROTEC 4 7SJ62 64 Manual 509 C53000 G1140 C207 8 Edition 08 2016 ...

Page 510: ...olerance 1 0 to 120 SNom 1 of SNom for V VNom and Ι ΙNom 50 to 120 P Active power with sign total and phase segregated in kW MW or GW primary and in SNom Range Tolerance 1 0 to 120 SNom 1 of SNom for V VNom and Ι ΙNom 50 to 120 and cos φ 0 707 to 1 with SNom 3 VNom ΙNom Q reactive power with sign total and phase segregated in kVAr MVAr or GVAr primary and in SNom Range Tolerance 1 0 to 120 SNom 1 ...

Page 511: ...al frequency Long Term Mean Values Time Window 5 15 30 or 60 minutes Frequency of Updates adjustable Long Term Averages of Currents of Real Power of Reactive Power of Apparent Power ΙAdmd ΙBdmd ΙCdmd Ι1dmd in A kA Pdmd in W kW MW Qdmd in VAr kVAr MVAr Sdmd in VAr kVAr MVAr Min Max Memory Storage of Measured Values with date and time Reset automatic Time of day adjustable in minutes 0 to 1439 min T...

Page 512: ... sequence Clockwise ABC counter clockwise ACB Voltage phase sequence Clockwise ABC counter clockwise ACB Limit value monitoring ΙA limit value ΙAdmd ΙB limit value ΙBdmd ΙC limit value ΙCdmd Ι1 limit value Ι1dmd ΙL limit value ΙL cos φ lower limit cos φ P limit value of active power Pdmd Q limit value of reactive poweR Qdmd S limit value of apparent power Sdmd Druck lower pressure limit Temperatur...

Page 513: ...ts Motor Statistics Total number of motor startups 0 to 9999 Resolution 1 Total operating time 0 to 99999 h Resolution 1 h Total down time 0 to 99999 h Resolution 1 h Ratio operating time down time 0 to 100 Resolution 0 1 Active energy and reactive energy see Operational Measured Values Motor start up data Start up time Start up current primary Start up voltage primary of the last 5 start ups 0 30...

Page 514: ...DNP serial or DNP3 TCP Modbus IEC 60870 5 103 redundant External synchronization using field bus 9 SNTP IEC 61850 DNP3 TCP PROFINET IO External synchronization using system interface IEC 61850 Setting Group Change Option of the Functional Settings Number of Available Setting Groups 4 parameter group A B C and D Switchover Performed using the keypad DIGSI using the front PC port with protocol via s...

Page 515: ...d double command Switching Command to Circuit Breaker 1 1 and 2 pole Programmable Logic Controller PLC logic graphic input tool Local Control Control via menu control assignment of function keys Remote Control Using Communication Interfaces Using a substation automation and control system e g SICAM Using DIGSI e g via Modem 4 28 Technical Data 4 28 Switching Device Control SIPROTEC 4 7SJ62 64 Manu...

Page 516: ...3 abmess einbau drittel gehaeuse 7sj62 64 170502 wlk 1 en_US Figure 4 13 Dimensional drawing of a 7SJ62 or 7SJ64 for panel flush and cubicle mounting housing size 1 3 4 29 4 29 1 Technical Data 4 29 Dimensions 516 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 517: ...abmess einbau halb gehaeuse 7sj62 64 170502 wlk 1 en_US Figure 4 14 Dimensional drawing of a 7SJ62 or 7SJ64 for panel flush and cubicle mounting housing size 1 2 4 29 2 Technical Data 4 29 Dimensions SIPROTEC 4 7SJ62 64 Manual 517 C53000 G1140 C207 8 Edition 08 2016 ...

Page 518: ... Size 1 1 abmess einbau ein gehaeuse 7sj64 v4 7 1 en_US Figure 4 15 Dimensional drawing of a 7SJ64 for panel flush and cubicle mounting housing size 1 1 4 29 3 Technical Data 4 29 Dimensions 518 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 519: ...SJ64 for panel flush mounting housing size 1 3 Panel Surface Mounting Housing Size 1 2 abmess aufbau halb gehaeuse 7sj63 64 170502 wlk 1 en_US Figure 4 17 Dimensional drawing of a 7SJ62 or 7SJ64 for panel flush mounting housing size 1 2 4 29 4 4 29 5 Technical Data 4 29 Dimensions SIPROTEC 4 7SJ62 64 Manual 519 C53000 G1140 C207 8 Edition 08 2016 ...

Page 520: ...bmess aufbau ein gehaeuse 7sj63 64 170502 wlk 1 en_US Figure 4 18 Dimensional drawing of a 7SJ64 for panel flush mounting housing size 1 1 4 29 6 Technical Data 4 29 Dimensions 520 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 521: ...ze 1 2 abmess aufbau m o bedien halb geh 7sj63 64 170502 wlk 1 en_US Figure 4 19 Dimensions 7SJ64 for mounting with detached operator panel or without operator panel housing size 1 2 4 29 7 Technical Data 4 29 Dimensions SIPROTEC 4 7SJ62 64 Manual 521 C53000 G1140 C207 8 Edition 08 2016 ...

Page 522: ...ize 1 1 abmess aufbau m o bedien ein geh 7sj63 64 170502 wlk 1 en_US Figure 4 20 Dimensions 7SJ64 for mounting with detached operator panel or without operator panel housing size 1 1 4 29 8 Technical Data 4 29 Dimensions 522 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 523: ...l abmess abg bedien 7sj63 64 170502 wlk 1 en_US Figure 4 21 Dimensions of a detached operator panel for a 7SJ64 device 4 29 9 Technical Data 4 29 Dimensions SIPROTEC 4 7SJ62 64 Manual 523 C53000 G1140 C207 8 Edition 08 2016 ...

Page 524: ...cubicle door cutout of D SUB miniature connector of dongle cable for a 7SJ64 device without integrated operator panel Varistor varistor 20071105 1 en_US Figure 4 23 Dimensional drawing of the varistor for voltage limiting in high impedance differential protec tion 4 29 10 4 29 11 Technical Data 4 29 Dimensions 524 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 525: ...dering Information and Accessories A 1 Ordering Information 7SJ62 V4 9 526 A 2 Ordering Information 7SJ64 V4 9 531 A 3 Accessories 537 A SIPROTEC 4 7SJ62 64 Manual 525 C53000 G1140 C207 8 Edition 08 2016 ...

Page 526: ...old 19 DC 88 V 5 DC 110 to 250 V AC 115 V to 230 V Binary Input Threshold 19 DC 176 V 6 Construction Pos 9 Surface mounting case for panel 2 tier terminals top bottom B Flush mounting case with plug in terminals 2 3 pin connector D Flush mounting case screw type terminals direct connection ring and spade lugs E Region specific Default Language Settings and Function Versions Pos 10 Region DE 50 Hz ...

Page 527: ...ection with 9th digit B If the optical interface is required you must order the following 11th digit 4 RS485 and in addition the associated converter 2 Cannot be delivered in connection with 9th digit B Converter Order No Use SIEMENS OLM1 6GK1502 2CB10 For single ring SIEMENS OLM1 6GK1502 3CB10 For double ring 1 The converter requires an operating voltage of 24 VDC If the available operating volta...

Page 528: ...ltage 59 1 59 2 27 1 27 2 Under Overfrequency QU protection Intermittent ground fault Flexible protection functions parameters from current and voltage Voltage power power factor frequency change voltage change protection P E Dir 67 67N Directional overcurrent protection F C Dir V f P 67 67N 27 59 81O U 27 47 59 N 32 55 81R Directional overcurrent protection Under Overvoltage 59 1 59 2 27 1 27 2 U...

Page 529: ...f P 67Ns 67Ns 87N 48 14 66 86 51M 27 59 81O U 27 47 59 N 32 55 81R Directional sensitive ground fault detection Directional detection of intermittent ground faults High impedance ground fault differential protection Motor starting protection locked rotor Restart inhibit for motors Load jam protection in motors motor statistics Under Overvoltage 59 1 59 2 27 1 27 2 Under Overfrequency QU protection...

Page 530: ...protection functions parameters from current and voltage Voltage power power factor frequency change voltage change protection H G motor 48 14 66 86 51M Motor starting protection locked rotor Reclosing lockout Load jam protection in motors motor statistics H A DGFD Directional ground fault detection IEF Intermittent ground earth fault protection Dir Directional Time Overcurrent Protection 67 and 6...

Page 531: ...plug in terminals detached operator panel Installation in a low voltage compartment A Surface mounting case for panel 2 tier terminals top bottom B Surface mounting case screw type terminals direct connection ring and spade lugs detached operator panel installation in a low voltage C Flush mounting case with plug in terminals 2 3 pin connector D Flush mounting case screw type terminals direct conn...

Page 532: ...or EN 100 L 3 R PROFINET über IP 100 Mbit Ethernet optical double duplex LC connector EN 100 L 3 S3 1 Cannot be delivered in connection with 9th digit B If the optical interface is required you must order the following 11 digit 4 RS485 and in addition the associated converter 2 Cannot be delivered in connection with 9th digit B Converter Order No Use SIEMENS OLM 1 6GK1502 2CB10 For single ring SIE...

Page 533: ...ock out V f P 27 59 81O U 27 47 59 N 32 55 81R Under Overvoltage 59 1 59 2 27 1 27 2 Under Overfrequency QU protection Flexible protection functions parameters from current and voltage Voltage power power factor frequency change voltage change protection F E IEF V f P 27 59 81O U 27 47 59 N 32 55 81R Under Overvoltage 59 1 59 2 27 1 27 2 Under Overfrequency QU protection Flexible protection functi...

Page 534: ...ge change protection F F 1 DGFD Dir IEF 67 67N 67Ns 67Ns 87N Directional overcurrent protection Directional sensitive ground fault detection Directional detection of intermittent ground faults High impedance ground fault differential protection Intermittent ground fault P D 1 DGFD 67Ns 67Ns 87N Directional sensitive ground fault detection Directional detection of intermittent ground faults High im...

Page 535: ...rotection Flexible protection functions parameters from current and voltage Voltage power power factor frequency change voltage change protection R H 1 motor Dir V f P 67 67N 48 14 66 86 51M 27 59 81O U 27 47 59 N 32 55 81R Directional overcurrent protection Motor starting protection locked rotor Restart inhibit for motors Load jam protection in motors motor statistics Under Overvoltage 59 1 59 2 ...

Page 536: ...onization 4 25 79 21FL With synchronization 79 and fault locator 7 Special model Supple ment with ATEX 100 approval for the protection of explosion protected motors of protection type increased safety e Z X 9 9 Ordering Information and Accessories A 2 Ordering Information 7SJ64 V4 9 536 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 537: ... C53207 A351 D689 1 Ethernet electrical EN 100 DNP3 TCP C53207 A351 D684 1 Ethernet optical EN 100 DNP3 TCP multimode C53207 A351 D686 1 IEC 60870 5 103 protocol redundant RS485 C53207 A351 D644 1 RTD Box Resistance Temperature Detector Name Order No RTD box VH 24 to 240 V AC DC 7XV5662 6AD10 RS485 FO converter RS485 FO converter Order No 820 nm FC Connector 7XV5650 0AA00 820 nm with ST Connector ...

Page 538: ...er Y adapter cable for devices with RS485 interface and sub D connector on 2x RJ45 sub miniature connector for a RS485 bus setup with patch cables 2 core twisted shielded length 0 3 m 1x sub D pin 9 pole on 2x RJ45 sub miniature connector 8 pole 7XV5103 2BA00 IEC 60870 5 103 redundant RS485 adapter cable Name Order Number Y adapter cable for devices with redundant IEC 608070 5 103 RS485 interface ...

Page 539: ...e auxiliary voltage Name Order No Plug in jumpers 10 pieces for setting the device auxiliary voltage C53207 A406 D210 1 Ordering Information and Accessories A 3 Accessories SIPROTEC 4 7SJ62 64 Manual 539 C53000 G1140 C207 8 Edition 08 2016 ...

Page 540: ...540 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 541: ...ousing for panel surface mounting 550 B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation 552 B 5 7SJ64 Housing for Panel Surface Mounting 559 B 6 7SJ64 Housing with Detached Operator Panel 566 B 7 7SJ64 Housing for Panel Surface Mounting without Operator Panel 572 B 8 Connector Assignment 578 B SIPROTEC 4 7SJ62 64 Manual 541 C53000 G1140 C207 8 Edition 08 2016 ...

Page 542: ...tafeleinbau 7sj621 d e 070602 kn 1 en_US Figure B 1 General diagram for 7SJ621 D E panel flush mounting or cubicle mounting B 1 Terminal Assignments B 1 7SJ62 Housing for panel flush mounting or cubicle installation 542 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 543: ...le mounted Double commands cannot be directly allocated to BO5 BO7 If these outputs are used for issuing a double command it has to be divided into two single commands via CFC Terminal Assignments B 1 7SJ62 Housing for panel flush mounting or cubicle installation SIPROTEC 4 7SJ62 64 Manual 543 C53000 G1140 C207 8 Edition 08 2016 ...

Page 544: ...0630 1 en_US Figure B 3 General diagram 7SJ623 5 D E panel flush mounted or cubicle mounted Terminal Assignments B 1 7SJ62 Housing for panel flush mounting or cubicle installation 544 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 545: ... mounted Double commands cannot be directly allocated to BO5 BO7 If these outputs are used for issuing a double command it has to be divided into two single commands via CFC Terminal Assignments B 1 7SJ62 Housing for panel flush mounting or cubicle installation SIPROTEC 4 7SJ62 64 Manual 545 C53000 G1140 C207 8 Edition 08 2016 ...

Page 546: ...1 B schalttafelaufbau 7sj621 b 070602 kn 1 en_US Figure B 5 General diagram for 7SJ621 B panel surface mounted B 2 Terminal Assignments B 2 7SJ62 Housing for Panel Surface Mounting 546 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 547: ...e mounted Double commands cannot be directly allocated to BO5 BO7 If these outputs are used for issuing a double command it has to be divided into two single commands via CFC Terminal Assignments B 2 7SJ62 Housing for Panel Surface Mounting SIPROTEC 4 7SJ62 64 Manual 547 C53000 G1140 C207 8 Edition 08 2016 ...

Page 548: ...ufb 7sj623 b 070329 1 en_US Figure B 7 General diagram for 7SJ623 5 B panel surface mounted Terminal Assignments B 2 7SJ62 Housing for Panel Surface Mounting 548 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 549: ...e mounted Double commands cannot be directly allocated to BO5 BO7 If these outputs are used for issuing a double command it has to be divided into two single commands via CFC Terminal Assignments B 2 7SJ62 Housing for Panel Surface Mounting SIPROTEC 4 7SJ62 64 Manual 549 C53000 G1140 C207 8 Edition 08 2016 ...

Page 550: ...C schalttafelaufbau 7sj621 2 b cc 070602 kn 1 en_US Figure B 9 General diagram for 7SJ621 2 B up to release CC panel surface mounted B 3 Terminal Assignments B 3 7SJ62 Interface assignment on housing for panel surface mounting 550 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 551: ...j621 2 b dd 070602 kn 1 en_US Figure B 10 General diagram 7SJ621 2 3 4 5 6 B release DD Schalttafelaufbau Terminal Assignments B 3 7SJ62 Interface assignment on housing for panel surface mounting SIPROTEC 4 7SJ62 64 Manual 551 C53000 G1140 C207 8 Edition 08 2016 ...

Page 552: ...afeleinbau 7sj640 d e 070602 kn 1 en_US Figure B 11 General diagram for 7SJ640 D E panel flush mounting or cubicle mounting B 4 Terminal Assignments B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation 552 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 553: ...kn 1 en_US Figure B 12 General diagram for 7SJ641 D E panel flush mounting or cubicle mounting Terminal Assignments B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation SIPROTEC 4 7SJ62 64 Manual 553 C53000 G1140 C207 8 Edition 08 2016 ...

Page 554: ...kn 1 en_US Figure B 13 General diagram for 7SJ642 D E panel flush mounting or cubicle mounting Terminal Assignments B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation 554 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 555: ...n 1 en_US Figure B 14 General diagram 7SJ645 D E panel flush mounted or cubicle mounted part 1 Terminal Assignments B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation SIPROTEC 4 7SJ62 64 Manual 555 C53000 G1140 C207 8 Edition 08 2016 ...

Page 556: ...2 kn 1 en_US Figure B 15 General diagram 7SJ645 D E panel flush mounted or cubicle mounted part 2 Terminal Assignments B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation 556 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 557: ...Figure B 16 Connection diagram for 7SJ647 D E panel flush mounted or cubicle mounted part 1 Terminal Assignments B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation SIPROTEC 4 7SJ62 64 Manual 557 C53000 G1140 C207 8 Edition 08 2016 ...

Page 558: ...US Figure B 17 Connection diagram for 7SJ647 D E panel flush mounted or cubicle mounted part 2 Terminal Assignments B 4 7SJ64 Housing for Panel Flush Mounting or Cubicle Installation 558 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 559: ...0 B schalttafelaufbau 7sj640 b 070602 kn 1 en_US Figure B 18 General diagram for 7SJ640 B panel surface mounted B 5 Terminal Assignments B 5 7SJ64 Housing for Panel Surface Mounting SIPROTEC 4 7SJ62 64 Manual 559 C53000 G1140 C207 8 Edition 08 2016 ...

Page 560: ...au 7sj641 b 070602 kn 1 en_US Figure B 19 General diagram for 7SJ641 B panel surface mounting Terminal Assignments B 5 7SJ64 Housing for Panel Surface Mounting 560 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 561: ...au 7sj642 b 070602 kn 1 en_US Figure B 20 General diagram for 7SJ642 B panel surface mounting Terminal Assignments B 5 7SJ64 Housing for Panel Surface Mounting SIPROTEC 4 7SJ62 64 Manual 561 C53000 G1140 C207 8 Edition 08 2016 ...

Page 562: ...u 7sj645 b 070602 kn 1 en_US Figure B 21 General diagram 7SJ645 B panel surface mounted part 1 Terminal Assignments B 5 7SJ64 Housing for Panel Surface Mounting 562 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 563: ...sj645 b teil2 070602 kn 1 en_US Figure B 22 General diagram 7SJ645 B panel surface mounted part 2 Terminal Assignments B 5 7SJ64 Housing for Panel Surface Mounting SIPROTEC 4 7SJ62 64 Manual 563 C53000 G1140 C207 8 Edition 08 2016 ...

Page 564: ... 7sj647 b 070329 1 en_US Figure B 23 General diagram for 7SJ647 B panel surface mounted part 1 Terminal Assignments B 5 7SJ64 Housing for Panel Surface Mounting 564 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 565: ...j647 b teil2 070329 1 en_US Figure B 24 General diagram for 7SJ647 B panel surface mounted part 2 Terminal Assignments B 5 7SJ64 Housing for Panel Surface Mounting SIPROTEC 4 7SJ62 64 Manual 565 C53000 G1140 C207 8 Edition 08 2016 ...

Page 566: ...bedien 7sj641 a c 070602 kn 1 en_US Figure B 25 General diagram 7SJ641 A C panel surface mounting with detached operator panel B 6 Terminal Assignments B 6 7SJ64 Housing with Detached Operator Panel 566 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 567: ...0602 kn 1 en_US Figure B 26 General diagram 7SJ642 A C panel surface mounting with detached operator panel Terminal Assignments B 6 7SJ64 Housing with Detached Operator Panel SIPROTEC 4 7SJ62 64 Manual 567 C53000 G1140 C207 8 Edition 08 2016 ...

Page 568: ...2 kn 1 en_US Figure B 27 General diagram 7SJ645 A C panel surface mounting with detached operator panel part 1 Terminal Assignments B 6 7SJ64 Housing with Detached Operator Panel 568 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 569: ...0602 kn 1 en_US Figure B 28 General diagram 7SJ645 A C panel surface mounting with detached operator panel part 2 Terminal Assignments B 6 7SJ64 Housing with Detached Operator Panel SIPROTEC 4 7SJ62 64 Manual 569 C53000 G1140 C207 8 Edition 08 2016 ...

Page 570: ...329 1 en_US Figure B 29 General diagram 7SJ647 A C panel surface mounting with detached operator panel part 1 Terminal Assignments B 6 7SJ64 Housing with Detached Operator Panel 570 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 571: ...070329 1 en_US Figure B 30 General diagram 7SJ647 A C panel surface mounting with detached operator panel part 2 Terminal Assignments B 6 7SJ64 Housing with Detached Operator Panel SIPROTEC 4 7SJ62 64 Manual 571 C53000 G1140 C207 8 Edition 08 2016 ...

Page 572: ...ien 7sj641 f g 070602 kn 1 en_US Figure B 31 General diagram 7SJ641 F G devices for panel surface mounting without operation unit B 7 Terminal Assignments B 7 7SJ64 Housing for Panel Surface Mounting without Operator Panel 572 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 573: ... 1 en_US Figure B 32 General diagram 7SJ642 F G panel surface mounting without operator panel Terminal Assignments B 7 7SJ64 Housing for Panel Surface Mounting without Operator Panel SIPROTEC 4 7SJ62 64 Manual 573 C53000 G1140 C207 8 Edition 08 2016 ...

Page 574: ...en_US Figure B 33 General diagram 7SJ645 F G panel surface mounting without operator panel part 1 Terminal Assignments B 7 7SJ64 Housing for Panel Surface Mounting without Operator Panel 574 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 575: ... 1 en_US Figure B 34 General diagram 7SJ645 F G panel surface mounting without operator panel part 2 Terminal Assignments B 7 7SJ64 Housing for Panel Surface Mounting without Operator Panel SIPROTEC 4 7SJ62 64 Manual 575 C53000 G1140 C207 8 Edition 08 2016 ...

Page 576: ...gure B 35 General diagram 7SJ647 F G devices for panel surface mounting without operation unit part 1 Terminal Assignments B 7 7SJ64 Housing for Panel Surface Mounting without Operator Panel 576 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 577: ... Figure B 36 General diagram 7SJ647 F G devices for panel surface mounting without operation unit part 2 Terminal Assignments B 7 7SJ64 Housing for Panel Surface Mounting without Operator Panel SIPROTEC 4 7SJ62 64 Manual 577 C53000 G1140 C207 8 Edition 08 2016 ...

Page 578: ... 8 CTS B B RxD TxD P A A RxD TxD N B 9 nicht vorhanden 1 Pin 7 also carries the RTS signal with RS232 level when operated as RS485 Schnittstelle interface Pin 7 must therefor not be connected Time Synchronization Port Table B 2 Assignment DSUB connetors of the Time Synchronization Port Pin No Designation Signal Meaning 1 P24_TSIG Input 24 V 2 P5_TSIG Input 5 V 3 M_TSIG Return Line 4 1 1 5 Screen S...

Page 579: ... Voltage Transformers 7SJ621 7SJ622 584 C 3 Connection Examples Voltage Transformers 7SJ623 7SJ624 7SJ625 7SJ626 7SJ64 587 C 4 Connection example for high impedance ground fault differential protection 592 C 5 Connection Example for RTD Box 593 C SIPROTEC 4 7SJ62 64 Manual 579 C53000 G1140 C207 8 Edition 08 2016 ...

Page 580: ... point current ground current standard connection suitable for all electrical power systems zwei stromwandler 20070418 1 en_US Figure C 2 Current connections to two current transformers only for ungrounded or compensated networks C 1 Connection Examples C 1 Connection Examples for Current Transformers all Devices 580 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 581: ...7 must be changed stromwdl kabelumbauwdl 20070413 1 en_US Figure C 4 Current connections to two current transformers ground current of additional toroidal trans former for sensitive ground fault detection Important Grounding of the cable shield must be effected at the cable s side For busbar side grounding of the current transformer the current polarity of the device is changed via address 0201 Th...

Page 582: ...cable shield must be effected at the cable s side For busbar side grounding of the current transformer the current polarity of the device is changed via address 0201 This also reverses the polarity of current input IN INs When using a cable type current trans former the connection of k and l at Q8 and Q7 must be changed Connection Examples C 1 Connection Examples for Current Transformers all Devic...

Page 583: ...d must be effected at the cable s side For busbar side grounding of the current transformer the current polarity of the device is changed via address 0201 This also reverses the polarity of current input IN INs When using a cable type current trans former the connection of k and l at Q8 and Q7 must be changed Connection Examples C 1 Connection Examples for Current Transformers all Devices SIPROTEC...

Page 584: ... normal circuit layout appropriate for all networks 7sj621 3spgswdl off dreieckwickl 20070413 1 en_US Figure C 8 Voltage connections to two voltage transformers phase to phase voltages and open delta VT for V4 appropriate for all networks C 2 Connection Examples C 2 Connection Examples for Voltage Transformers 7SJ621 7SJ622 584 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 585: ...nce voltage must be disabled Note If the system only has 2 voltage transformers open delta connection connect also the device in opendelta connection and short circuit the unused voltage input 7sj621 3spgwdl kabelumbauw e n wickl 20070413 1 en_US Figure C 10 Voltage transformer connection only to open delta VT Connection Examples C 2 Connection Examples for Voltage Transformers 7SJ621 7SJ622 SIPRO...

Page 586: ...S Figure C 11 Connection circuit for single phase voltage transformers with phase to ground voltages Connection Examples C 2 Connection Examples for Voltage Transformers 7SJ621 7SJ622 586 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 587: ...rminal markings in brackets apply to the devices 7SJ623 4 5 6 the remaining to devices 7SJ64 spannungswdl e n wickl 20070416 1 en_US Figure C 13 Voltage connections to three wye connected voltage transformers with additional open delta windings da dn C 3 Connection Examples C 3 Connection Examples Voltage Transformers 7SJ623 7SJ624 7SJ625 7SJ626 7SJ64 SIPROTEC 4 7SJ62 64 Manual 587 C53000 G1140 C2...

Page 588: ...ections to three wye connected voltage transformers with additional open delta windings da dn of the busbar The terminal markings in brackets apply to the devices 7SJ623 4 5 6 the remaining to devices 7SJ64 Connection Examples C 3 Connection Examples Voltage Transformers 7SJ623 7SJ624 7SJ625 7SJ626 7SJ64 588 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 589: ...maining to devices 7SJ64 2 verkettete spg 3stern e n wickl 20070416 1 en_US Figure C 16 Voltage transformer connections of two phase to phase voltages in open delta voltageconnec tion In this connection determination of zero sequence voltage V0 is not possible Functions using zero sequence voltage must be disabled Connection Examples C 3 Connection Examples Voltage Transformers 7SJ623 7SJ624 7SJ62...

Page 590: ... phase voltage for synchronism check for example In this connection determination of zerose quence voltage V0 is not possible Functions using zero sequence voltage must be disabled The terminal markings in brackets apply to the devices 7SJ623 4 5 6 the remaining to devices 7SJ64 Connection Examples C 3 Connection Examples Voltage Transformers 7SJ623 7SJ624 7SJ625 7SJ626 7SJ64 590 SIPROTEC 4 7SJ62 ...

Page 591: ...e transformers with phase to phase voltages The terminal markings in brackets apply to the devices 7SJ623 4 5 6 the remaining to devices 7SJ64 Connection Examples C 3 Connection Examples Voltage Transformers 7SJ623 7SJ624 7SJ625 7SJ626 7SJ64 SIPROTEC 4 7SJ62 64 Manual 591 C53000 G1140 C207 8 Edition 08 2016 ...

Page 592: ... C 19 High impedance differential protection for a grounded transformer winding showing the partial connection for the high impedance differential protection C 4 Connection Examples C 4 Connection example for high impedance ground fault differential protection 592 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 593: ...duplex operation with one RTD Box above optical design 2 FOs below design with RS 485 RS485 cable 7XV5103 7AAxx 1 for 7SJ64 port D 2 for 7SJ64 optionally port C or port D C 5 Connection Examples C 5 Connection Example for RTD Box SIPROTEC 4 7SJ62 64 Manual 593 C53000 G1140 C207 8 Edition 08 2016 ...

Page 594: ...594 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 595: ...nt based on experi ence The recommendations are given according to the standard IEC 60044 1 The standards IEC 60044 6 BS 3938 and ANSI IEEE C 57 13 are referred to for converting the requirement into the knee point voltage and other transformer classes D 1 Accuracy limiting factors 596 D 2 Class conversion 597 D 3 Cable core balance current transformer 598 D SIPROTEC 4 7SJ62 64 Manual 595 C53000 G...

Page 596: ...ting factor with KALF Rated accuracy limiting factor RBC Connected burden resistance device and cables RBN Nominal burden resistance RCt Transformer internal burden resistance Calculation example according to IEC 60044 1 ΙsNom 1 A KALF 20 RBC 0 6 Ω device and cables RCt 3 Ω RBN 5 Ω 5 VA KALF set to 10 so that 5P10 5 VA mit ΙsNom secondary transformer nominal current D 1 Current Transformer Require...

Page 597: ...d specified closing sequence with withk Knee point voltage RCt Internal burden resistance RBN Nominal burden resistance ΙsN Secondary nominal transformer current KALF Rated accuracy limiting factor Us t max Sec terminal voltage at 20 ΙpNom Ual Sec magnetization limit voltage K Dimensioning factor KSSC Factor symmetr Rated fault current TP Primary time constant D 2 Current Transformer Requirements ...

Page 598: ...he range from 0 VA to the rated burden This specification is then outside the standard but in practice it is possible in most cases Relevant standard IEC 61869 2 Chapter 5 6 201 4 Extended burden range There the range 1 VA to rated burden is specified for rated burdens smaller than 15 VA Class accuracy Table D 2 Minimum required class accuracy depending on neutral grounding and function operating ...

Page 599: ...nd outputs as well as function keys are already preset They are summarized in the following table E 1 LEDs 600 E 2 Binary Input 601 E 3 Binary Output 602 E 4 Function Keys 603 E 5 Default Display 604 E 6 Pre defined CFC Charts 608 E 7 Protocol dependent Functions 611 E SIPROTEC 4 7SJ62 64 Manual 599 C53000 G1140 C207 8 Edition 08 2016 ...

Page 600: ...up LED6 Failure Σ I 162 Failure Current Summation Fail I balance 163 Failure Current Balance Fail V balance 167 Failure Voltage Balance Fail Ph Seq I 175 Failure Phase Sequence Current Fail Ph Seq V 176 Failure Phase Sequence Voltage LED7 Not configured 1 No Function configured LED8 Brk OPENED Breaker OPENED LED9 Door open Cabinet door open LED10 CB wait CB waiting for Spring charged LED11 Not con...

Page 601: ...eaker BI5 52 a 4601 52 a contact OPEN if bkr is open 52Breaker 52 Breaker Table E 3 Zusätzliche voreingestellte Binäreingänge für 7SJ641 2 5 7 Binary Input Default function Function No Description BI6 Disc Swit Disconnect Switch BI7 Disc Swit Disconnect Switch BI8 GndSwit Ground Switch BI9 GndSwit Ground Switch BI11 CB ready CB ready Spring is charged BI12 DoorClose Door closed E 2 Default Setting...

Page 602: ...ure Phase Sequence Current Fail Ph Seq V 176 Failure Phase Sequence Voltage BO7 Relay PICKUP 501 Relay PICKUP Table E 6 Further Output Relay Presettings for 7SJ64 Binary Output Default function Function No Description BO3 Relay TRIP 511 Relay GENERAL TRIP command 52Breaker 52 Breaker BO4 52Breaker 52 Breaker 79 Close 2851 79 Close command BO5 52Breaker 52 Breaker 79 Close 2851 79 Close command Tab...

Page 603: ...ion F1 Display of operational indications F2 Display of the primary operational measured values F3 Display of the last fault event recording F4 Not allocated E 4 Default Settings and Protocol dependent Functions E 4 Function Keys SIPROTEC 4 7SJ62 64 Manual 603 C53000 G1140 C207 8 Edition 08 2016 ...

Page 604: ... with graphic display there is a default display indicating the actual operating state and or selected measured values The display size is selected during configuration for the 4 line Display of 7SJ62 grundbild7sj62 ohne erweiterung 0o1 060627 1 en_US Figure E 1 Default display of 7SJ62 for models without extended measured values 13th digit of MLFB 0 or 1 E 5 Default Settings and Protocol dependen...

Page 605: ...en_US Figure E 2 Default display of 7SJ62 for models with extended measured values 13th digit of MLFB 2 or 3 Page 8 and page 10 of the default display can only be used if for the current connection parameter 251 CT Connect one of the two special connection types A G2 C G G B or A G2 C G G2 B were selected see description of Power System Data 1 Default Settings and Protocol dependent Functions E 5 ...

Page 606: ...ay can only be used if for the current connection parameter 251 CT Connect one of the two special connection types A G2 C G G B or A G2 C G G2 B were selected see description of Power System Data 1 Default Settings and Protocol dependent Functions E 5 Default Display 606 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 607: ...n of the device in the sequence shown in the following figure anzeige spontanmeld im display 20070326 1 en_US Figure E 5 Display of spontaneous messages in the HMI Spontaneous Fault Indication of the Graphic Display All devices featuring a graphic display allow to select whether or not to view automatically the most important fault data on the display after a general interrogation The information ...

Page 608: ...output Setpoints MV Using modules on the running sequence measured value processing a low current monitor for the three phase currents is implemented The output message is set high as soon as one of the three phase currents falls below the set threshold cfc unterstromueberwachung 020313 kn 1 en_US Figure E 7 Undercurrent monitoring Blocks of the task level MW_BEARB measured value processing are us...

Page 609: ...g 020313 kn 1 en_US Figure E 9 Power monitoring Switchgear Interlocking for 7SJ625 6 and 7SJ64 Standard interlocking for three switching devices 52 Disc and GndSw Default Settings and Protocol dependent Functions E 6 Pre defined CFC Charts SIPROTEC 4 7SJ62 64 Manual 609 C53000 G1140 C207 8 Edition 08 2016 ...

Page 610: ... 1 en_US Figure E 10 Standard interlocking for circuit breaker disconnector and ground switch Default Settings and Protocol dependent Functions E 6 Pre defined CFC Charts 610 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 611: ...s Yes Yes Yes Yes Yes Yes Time Synchro nization Yes Yes Yes Yes Yes Yes Yes Yes Messages with time stamp Yes Yes Yes Yes Yes Yes Yes Yes Yes Commissioning aids Measured value indica tion blocking Yes Yes Yes No No Yes No No Yes Creating test messages Yes Yes Yes No No Yes No No Yes Physical mode Asynchro nous Asyn chronous Synchro nous Synchro nous Asyn chronous Asyn chro nous Synchro nous Asynchr...

Page 612: ...uble ring RS485 optical fiber single ring double ring Ethernet TP Ethernet optical fiber RS485 optical fiber RS232 RS485 optical fiber 1 LWL Lichtwellenleiter Default Settings and Protocol dependent Functions E 7 Protocol dependent Functions 612 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 613: ...ions Settings Information F 1 Functional Scope 614 F 2 Settings 617 F 3 Information List 656 F 4 Group Alarms 711 F 5 Measured Values 713 F SIPROTEC 4 7SJ62 64 Manual 613 C53000 G1140 C207 8 Edition 08 2016 ...

Page 614: ...r Defined PU User def Reset Definite Time 67 67 TOC 116 67N 67N TOC Disabled Definite Time TOC IEC TOC ANSI User Defined PU User def Reset Definite Time 67N 67N TOC 117 Coldload Pickup Disabled Enabled Disabled Cold Load Pickup 122 InrushRestraint Disabled Enabled Disabled 2nd Harmonic Inrush Restraint 127 50 1Ph Disabled Enabled Disabled 50 1Ph 130 S Gnd F Dir Ch cos φ sin φ V0 I0 φ mea cos φ sin...

Page 615: ...on 154 81 O U Disabled Enabled Disabled 81 Over Underfrequency Protec tion 155 27 Q Protection Disabled Enabled Disabled 27 Q dir con Protection 161 25 Function 1 Disabled ASYN SYNCHRON SYNCHROCHECK Disabled 25 Function group 1 162 25 Function 2 Disabled ASYN SYNCHRON SYNCHROCHECK Disabled 25 Function group 2 163 25 Function 3 Disabled ASYN SYNCHRON SYNCHROCHECK Disabled 25 Function group 3 164 25...

Page 616: ...Connec tion Type FLEXIBLE FCT 1 20 Flexible Function 01 Flexible Function 02 Flexible Function 03 Flexible Function 04 Flexible Function 05 Flexible Function 06 Flexible Function 07 Flexible Function 08 Flexible Function 09 Flexible Function 10 Flexible Function 11 Flexible Function 12 Flexible Function 13 Flexible Function 14 Flexible Function 15 Flexible Function 16 Flexible Function 17 Flexible...

Page 617: ... BLK f out of r Flx YES NO YES Block while Freq is out of range 0 MEAS QUANTITY Flx Please select Current Voltage P forward P reverse Q forward Q reverse Power factor dV dt rising dV dt falling Frequency df dt rising df dt falling Binary Input Please select Selection of Measured Quantity 0 MEAS METHOD Flx Fundamental True RMS Positive seq Negative seq Zero sequence Ratio I2 I1 Fundamental Selectio...

Page 618: ...A 2 5 50000 0 W 1000 0 W 0 P U THRESHOLD Flx 1A 0 5 10000 0 VAR 200 0 VAR Pickup Threshold 5A 2 5 50000 0 VAR 1000 0 VAR 0 P U THRESHOLD Flx 0 99 0 99 0 50 Pickup Threshold 0 P U THRESHOLD Flx 15 100 20 Pickup Threshold 0 P U THRESHOLD Flx 4 100 V s 60 V s Pickup Threshold 0 T TRIP DELAY Flx 0 00 3600 00 sec 1 00 sec Trip Time Delay 0 T PICKUP DELAY Flx 0 00 60 00 sec 0 00 sec Pickup Time Delay 0A...

Page 619: ...nd Vab Vbc Vx Van Vbn Vcn VGn Van Vbn Vcn VSy Van Vbn Vcn Vx Van Vbn Vcn VT Connection three phase 214 Rated Frequency P System Data 1 50 Hz 60 Hz 50 Hz Rated Frequency 215 Distance Unit P System Data 1 km Miles km Distance measurement unit 217 Ignd CT PRIM P System Data 1 1 50000 A 60 A Ignd CT rated primary current 218 Ignd CT SEC P System Data 1 1A 5A 1A Ignd CT rated secondary current 235A ATE...

Page 620: ...I P System Data 1 NO YES OFF NO Interlocking on or off via binary input 302 CHANGE Change Group Group A Group B Group C Group D Binary Input Protocol Group A Change to Another Setting Group 401 WAVEFORM TRIGGER Osc Fault Rec Save w Pickup Save w TRIP Start w TRIP Save w Pickup Waveform Capture 402 WAVEFORM DATA Osc Fault Rec Fault event Pow Sys Flt Fault event Scope of Waveform Data 403 MAX LENGTH...

Page 621: ... A Measurem FullScaleCur rent Equipm rating 1103 RE RL P System Data 2 0 33 7 00 1 00 Zero seq compensating factor RE RL 1104 XE XL P System Data 2 0 33 7 00 1 00 Zero seq compensating factor XE XL 1105 x P System Data 2 1A 0 0050 15 0000 Ω mi 0 2420 Ω mi feeder reactance per mile x 5A 0 0010 3 0000 Ω mi 0 0484 Ω mi 1106 x P System Data 2 1A 0 0050 9 5000 Ω km 0 1500 Ω km feeder reactance per km x...

Page 622: ...VE 50 51 Overcur Very Inverse Inverse Short Inverse Long Inverse Moderately Inv Extremely Inv Definite Inv Very Inverse ANSI Curve 1213A MANUAL CLOSE 50 51 Overcur 50 3 instant 50 2 instant 50 1 instant 51 instant Inactive 50 2 instant Manual Close Mode 1214A 50 2 active 50 51 Overcur Always with 79 active Always 50 2 active 1215A 50 T DROP OUT 50 51 Overcur 0 00 60 00 sec 0 00 sec 50 Drop Out Tim...

Page 623: ...ME DIAL 50 51 Overcur 0 05 3 20 sec 0 20 sec 51N Time Dial 1309 51N TIME DIAL 50 51 Overcur 0 50 15 00 5 00 51N Time Dial 1310 51N Drop out 50 51 Overcur Instantaneous Disk Emulation Disk Emulation Drop Out Characteristic 1311 51N IEC CURVE 50 51 Overcur Normal Inverse Very Inverse Extremely Inv Long Inverse Normal Inverse IEC Curve 1312 51N ANSI CURVE 50 51 Overcur Very Inverse Inverse Short Inve...

Page 624: ...1 DELAY 67 Direct O C 0 00 60 00 sec 0 50 sec 67 1Time Delay 1507 67 TOC PICKUP 67 Direct O C 1A 0 10 4 00 A 1 00 A 67 TOC Pickup 5A 0 50 20 00 A 5 00 A 1508 67 TIME DIAL 67 Direct O C 0 05 3 20 sec 0 50 sec 67 TOC Time Dial 1509 67 TIME DIAL 67 Direct O C 0 50 15 00 5 00 67 TOC Time Dial 1510 67 TOC Drop out 67 Direct O C Instantaneous Disk Emulation Disk Emulation Drop Out Characteristic 1511 67...

Page 625: ...0 I Ip 0 01 999 00 TD 67 1531 MofPU Res T Tp 67 Direct O C 0 05 0 95 I Ip 0 01 999 00 TD Multiple of Pickup T Tp 1532A 67 3 active 67 Direct O C always with 79 active always 67 3 active 1601 FCT 67N 67N TOC 67 Direct O C OFF ON OFF 67N 67N TOC Ground Time Overcurrent 1602 67N 2 PICKUP 67 Direct O C 1A 0 05 35 00 A 0 50 A 67N 2 Pickup 5A 0 25 175 00 A 2 50 A 1603 67N 2 DELAY 67 Direct O C 0 00 60 0...

Page 626: ...67N 1 measurement of 1622A 67N TOC MEASUR 67 Direct O C Fundamental True RMS Fundamental 67N TOC measurement of 1623 67N 2 Direction 67 Direct O C Forward Reverse Non Directional Forward 67N 2 Direction 1624 67N 1 Direction 67 Direct O C Forward Reverse Non Directional Forward 67N 1 Direction 1625 67N TOC Direct 67 Direct O C Forward Reverse Non Directional Forward 67N TOC Direction 1626 67N 3 Dir...

Page 627: ...A 35 00 A 1902 50Nc 2 DELAY ColdLoadPickup 0 00 60 00 sec 0 00 sec 50Nc 2 Time Delay 1903 50Nc 1 PICKUP ColdLoadPickup 1A 0 05 35 00 A 1 50 A 50Nc 1 Pickup 5A 0 25 175 00 A 7 50 A 1904 50Nc 1 DELAY ColdLoadPickup 0 00 60 00 sec 0 30 sec 50Nc 1 Time Delay 1905 51Nc PICKUP ColdLoadPickup 1A 0 05 4 00 A 1 00 A 51Nc Pickup 5A 0 25 20 00 A 5 00 A 1906 51Nc T DIAL ColdLoadPickup 0 05 3 20 sec 0 50 sec 5...

Page 628: ...rush Restraint 5A 1 50 125 00 A 37 50 A 2701 50 1Ph 50 1Ph OFF ON OFF 50 1Ph 2702 50 1Ph 2 PICKUP 50 1Ph 1A 0 05 35 00 A 0 50 A 50 1Ph 2 Pickup 5A 0 25 175 00 A 2 50 A 2703 50 1Ph 2 PICKUP 50 1Ph 0 003 1 500 A 0 300 A 50 1Ph 2 Pickup 2704 50 1Ph 2 DELAY 50 1Ph 0 00 60 00 sec 0 10 sec 50 1Ph 2 Time Delay 2705 50 1Ph 1 PICKUP 50 1Ph 1A 0 05 35 00 A 0 20 A 50 1Ph 1 Pickup 5A 0 25 175 00 A 1 00 A 2706...

Page 629: ... sec 50Ns 1 Time delay 3119 51Ns PICKUP Sens Gnd Fault 0 001 1 400 A 0 100 A 51Ns Pickup 3119 51Ns PICKUP Sens Gnd Fault 0 003 0 500 A 0 004 A 51Ns Pickup 3119 51Ns PICKUP Sens Gnd Fault 1A 0 05 4 00 A 1 00 A 51Ns Pickup 5A 0 25 20 00 A 5 00 A 3120 51NsTIME DIAL Sens Gnd Fault 0 05 4 00 sec 1 00 sec 51Ns Time Dial 3120 51c TIME DIAL Sens Gnd Fault 0 50 15 00 5 00 51c Time dial 3121A 50Ns T DROP OU...

Page 630: ... Charac 3144 51Ns IEC CURVE Sens Gnd Fault Normal Inverse Very Inverse Extremely Inv Long Inverse Normal Inverse IEC Curve 3145 51Ns ANSI CURVE Sens Gnd Fault Very Inverse Inverse Short Inverse Long Inverse Moderately Inv Extremely Inv Definite Inv Very Inverse ANSI Curve 3146 51Ns Drop out Sens Gnd Fault Instantaneous Disk Emulation Disk Emulation Drop out characteristic 3150 50Ns 2 Vmin Sens Gnd...

Page 631: ...ted 3403 No of pulses Dir Interm EF 2 50 5 Pulse no for detecting the interm E F 3404 Monitoring time Dir Interm EF 0 04 10 00 sec 2 00 sec Monitoring time after pickup detected 3405 Vgnd 3V0 Dir Interm EF 2 0 100 0 V 20 0 V Vgnd measured 3V0 calculated 3406 Pickup Dir Interm EF with Vgnd 3V0 with oper dir with Vgnd 3V0 Pickup of the function 4001 FCT 46 46 Negative Seq OFF ON OFF 46 Negative Sequ...

Page 632: ... 4203 TIME CONSTANT 49 Th Overload 1 0 999 9 min 100 0 min Time Constant 4204 49 Θ ALARM 49 Th Overload 50 100 90 49 Thermal Alarm Stage 4205 I ALARM 49 Th Overload 1A 0 10 4 00 A 1 00 A Current Overload Alarm Setpoint 5A 0 50 20 00 A 5 00 A 4207A Kτ FACTOR 49 Th Overload 1 0 10 0 1 0 Kt FACTOR when motor stops 4208A T EMERGENCY 49 Th Overload 10 15000 sec 100 sec Emergency time 4209 49 TEMP RISE ...

Page 633: ...lk 48 66 Motor prot 0 00 600 00 sec 10 00 sec Load Jam Blocking after motor start 5001 FCT 59 27 59 O U Volt OFF ON Alarm Only OFF 59 Overvoltage Protec tion 5002 59 1 PICKUP 27 59 O U Volt 40 260 V 110 V 59 1 Pickup 5003 59 1 PICKUP 27 59 O U Volt 40 150 V 110 V 59 1 Pickup 5004 59 1 DELAY 27 59 O U Volt 0 00 100 00 sec 0 50 sec 59 1 Time Delay 5005 59 2 PICKUP 27 59 O U Volt 40 260 V 120 V 59 2 ...

Page 634: ... 20 5 00 A 0 20 A 5208 T DELAY ALARM Meas urem Superv 0 00 32 00 sec 1 25 sec Alarm delay time 5301 FUSE FAIL MON Meas urem Superv OFF Solid grounded Coil gnd isol OFF Fuse Fail Monitor 5302 FUSE FAIL 3Vo Meas urem Superv 10 100 V 30 V Zero Sequence Voltage 5303 FUSE FAIL RESID Meas urem Superv 1A 0 10 1 00 A 0 10 A Residual Current 5A 0 50 5 00 A 0 50 A 5308A FFM Idiff 3ph Meas urem Superv 1A 0 0...

Page 635: ...1A 0 02 0 20 A 0 0 10 A Current Rel for Trip and Reclose 5A 0 10 1 00 A 0 0 50 A 5503 Inrush blk 27 Q NO YES NO blocking with inrush 5511 Q Pickup 27 Q 1A 1 70 10000 00 VAR 8 70 VAR Reactive power threshold for pickup 5A 8 50 50000 00 VAR 43 50 VAR 5512 U Pickup 27 Q 10 00 210 00 V 85 00 V Undervoltage threshold for pickup 5513 Delay Gen CB 27 Q 0 00 60 00 sec 0 50 sec Trip time delay generator CB...

Page 636: ... Ω mi 6014 S2 x P System Data 2 1A 0 0050 9 5000 Ω km 0 1500 Ω km S2 feeder reactance per km x 5A 0 0010 1 9000 Ω km 0 0300 Ω km 6015 S2 Line angle P System Data 2 10 89 85 S2 Line angle 6016 S2 line length P System Data 2 0 1 650 0 Miles 62 1 Miles S2 line length in miles 6017 S2 Line length P System Data 2 0 1 1000 0 km 100 0 km S2 Line length in kilo meter 6021 S3 RE RL P System Data 2 0 33 7 0...

Page 637: ...r V1 V2 6112 T SYN DURATION SYNC function 1 0 01 1200 00 sec 30 00 sec Maximum duration of Synchronization 6113A 25 Synchron SYNC function 1 YES NO YES Switching at synchronous condition 6120 T CB close SYNC function 1 0 01 0 60 sec 0 06 sec Closing operating time of CB 6121 Balancing V1 V2 SYNC function 1 0 50 2 00 1 00 Balancing factor V1 V2 6122A ANGLE ADJUSTM SYNC function 1 0 360 0 Angle adju...

Page 638: ... frequency difference f2 f1 6154 dα SYNCHK α2 α1 SYNC function 1 2 80 10 Maximum angle differ ence alpha2 alpha1 6155 dα SYNCHK α2 α1 SYNC function 1 2 80 10 Maximum angle differ ence alpha2 alpha1 6201 Synchronizing SYNC function 2 ON OFF OFF Synchronizing Function 6202 SyncCB SYNC function 2 Einstellmöglich keiten anwendung sabhängig none Synchronizable circuit breaker 6203 Vmin SYNC function 2 ...

Page 639: ...s conditions 6241 F SYNCHRON SYNC function 2 0 01 0 04 Hz 0 01 Hz Frequency threshold ASYN SYN 6242 dV SYNC V2 V1 SYNC function 2 0 5 50 0 V 5 0 V Maximum voltage differ ence V2 V1 6243 dV SYNC V2 V1 SYNC function 2 0 5 50 0 V 5 0 V Maximum voltage differ ence V2 V1 6244 dα SYNC α2 α1 SYNC function 2 2 80 10 Maximum angle differ ence alpha2 alpha1 6245 dα SYNC α2 α1 SYNC function 2 2 80 10 Maximum...

Page 640: ...r V1 V2 6312 T SYN DURATION SYNC function 3 0 01 1200 00 sec 30 00 sec Maximum duration of Synchronization 6313A 25 Synchron SYNC function 3 YES NO YES Switching at synchronous condition 6320 T CB close SYNC function 3 0 01 0 60 sec 0 06 sec Closing operating time of CB 6321 Balancing V1 V2 SYNC function 3 0 50 2 00 1 00 Balancing factor V1 V2 6322A ANGLE ADJUSTM SYNC function 3 0 360 0 Angle adju...

Page 641: ... frequency difference f2 f1 6354 dα SYNCHK α2 α1 SYNC function 3 2 80 10 Maximum angle differ ence alpha2 alpha1 6355 dα SYNCHK α2 α1 SYNC function 3 2 80 10 Maximum angle differ ence alpha2 alpha1 6401 Synchronizing SYNC function 4 ON OFF OFF Synchronizing Function 6402 SyncCB SYNC function 4 Einstellmöglich keiten anwendung sabhängig none Synchronizable circuit breaker 6403 Vmin SYNC function 4 ...

Page 642: ...s conditions 6441 F SYNCHRON SYNC function 4 0 01 0 04 Hz 0 01 Hz Frequency threshold ASYN SYN 6442 dV SYNC V2 V1 SYNC function 4 0 5 50 0 V 5 0 V Maximum voltage differ ence V2 V1 6443 dV SYNC V2 V1 SYNC function 4 0 5 50 0 V 5 0 V Maximum voltage differ ence V2 V1 6444 dα SYNC α2 α1 SYNC function 4 2 80 10 Maximum angle differ ence alpha2 alpha1 6445 dα SYNC α2 α1 SYNC function 4 2 80 10 Maximum...

Page 643: ...cl 0 10 320 00 sec 3 00 sec Circuit Breaker CB Supervision Time 7116 Max DEAD EXT 79M Auto Recl 0 50 1800 00 sec 100 00 sec Maximum dead time extension 7117 T ACTION 79M Auto Recl 0 01 320 00 sec sec Action time 7118 T DEAD DELAY 79M Auto Recl 0 0 1800 0 sec 1 0 sec Maximum Time Delay of Dead Time Start 7127 DEADTIME 1 PH 79M Auto Recl 0 01 320 00 sec 0 50 sec Dead Time 1 Phase Fault 7128 DEADTIME...

Page 644: ... 79 No influence 50N 2 7154 51 79M Auto Recl No influence Starts 79 Stops 79 No influence 51 7155 51N 79M Auto Recl No influence Starts 79 Stops 79 No influence 51N 7156 67 1 79M Auto Recl No influence Starts 79 Stops 79 No influence 67 1 7157 67N 1 79M Auto Recl No influence Starts 79 Stops 79 No influence 67N 1 7158 67 2 79M Auto Recl No influence Starts 79 Stops 79 No influence 67 2 7159 67N 2 ...

Page 645: ...influence Starts 79 Stops 79 No influence 67Ns TOC 7175 bef 1 Cy 67Ns 1 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 1 Cycle 67Ns 1 7176 bef 1 Cy 67Ns 2 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 1 Cycle 67Ns 2 7177 bef 1Cy 67NsTOC 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 1 Cycle 67Ns TOC 7178 bef 2 Cy 67Ns 1 79M A...

Page 646: ... 50 2 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 1 Cycle 50 2 7203 bef 1 Cy 50N 2 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 1 Cycle 50N 2 7204 bef 1 Cy 51 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 1 Cycle 51 7205 bef 1 Cy 51N 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 1 Cycle 51N 7206 ...

Page 647: ...cl Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67 1 7219 bef 2 Cy 67N 1 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67N 1 7220 bef 2 Cy 67 2 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67 2 7221 bef 2 Cy 67N 2 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 2 Cycle 67N 2 7222 bef 2 Cy ...

Page 648: ...to Recl Set value T T instant T 0 blocked T Set value T T before 3 Cycle 67 TOC 7235 bef 3 Cy 67NTOC 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 3 Cycle 67N TOC 7236 bef 4 Cy 50 1 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50 1 7237 bef 4 Cy 50N 1 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 4 Cycle 50N 1 7238...

Page 649: ...to Recl Set value T T instant T 0 blocked T Set value T T before 2 Cycle 50 3 7251 bef 2 Cy 50N 3 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 2 Cycle 50N 3 7252 bef 3 Cy 50 3 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 3 Cycle 50 3 7253 bef 3 Cy 50N 3 79M Auto Recl Set value T T instant T 0 blocked T Set value T T before 3 Cycle 50N 3 7254 bef ...

Page 650: ...tor for Voltage Monitor 8104 BALANCE I LIMIT Meas urem Superv 1A 0 10 1 00 A 0 50 A Current Threshold for Balance Monitoring 5A 0 50 5 00 A 2 50 A 8105 BAL FACTOR I Meas urem Superv 0 10 0 90 0 50 Balance Factor for Current Monitor 8106 Σ I THRESHOLD Meas urem Superv 1A 0 05 2 00 A 0 10 A Summated Current Moni toring Threshold 5A 0 25 10 00 A 0 50 A 8107 Σ I FACTOR Meas urem Superv 0 00 0 95 0 10 ...

Page 651: ...g Bearing Other Oil RTD 1 Location 9013 RTD 1 STAGE 1 RTD Box 50 250 C 100 C RTD 1 Temperature Stage 1 Pickup 9014 RTD 1 STAGE 1 RTD Box 58 482 F 212 F RTD 1 Temperature Stage 1 Pickup 9015 RTD 1 STAGE 2 RTD Box 50 250 C 120 C RTD 1 Temperature Stage 2 Pickup 9016 RTD 1 STAGE 2 RTD Box 58 482 F 248 F RTD 1 Temperature Stage 2 Pickup 9021A RTD 2 TYPE RTD Box Not connected Pt 100 Ω Ni 120 Ω Ni 100 Ω...

Page 652: ...il Ambient Winding Bearing Other Other RTD 4 Location 9043 RTD 4 STAGE 1 RTD Box 50 250 C 100 C RTD 4 Temperature Stage 1 Pickup 9044 RTD 4 STAGE 1 RTD Box 58 482 F 212 F RTD 4 Temperature Stage 1 Pickup 9045 RTD 4 STAGE 2 RTD Box 50 250 C 120 C RTD 4 Temperature Stage 2 Pickup 9046 RTD 4 STAGE 2 RTD Box 58 482 F 248 F RTD 4 Temperature Stage 2 Pickup 9051A RTD 5 TYPE RTD Box Not connected Pt 100 ...

Page 653: ...Ω Ni 120 Ω Ni 100 Ω Not connected RTD 7 Type 9072A RTD 7 LOCATION RTD Box Oil Ambient Winding Bearing Other Other RTD 7 Location 9073 RTD 7 STAGE 1 RTD Box 50 250 C 100 C RTD 7 Temperature Stage 1 Pickup 9074 RTD 7 STAGE 1 RTD Box 58 482 F 212 F RTD 7 Temperature Stage 1 Pickup 9075 RTD 7 STAGE 2 RTD Box 50 250 C 120 C RTD 7 Temperature Stage 2 Pickup 9076 RTD 7 STAGE 2 RTD Box 58 482 F 248 F RTD ...

Page 654: ...9 Temperature Stage 2 Pickup 9101A RTD10 TYPE RTD Box Not connected Pt 100 Ω Ni 120 Ω Ni 100 Ω Not connected RTD10 Type 9102A RTD10 LOCATION RTD Box Oil Ambient Winding Bearing Other Other RTD10 Location 9103 RTD10 STAGE 1 RTD Box 50 250 C 100 C RTD10 Temperature Stage 1 Pickup 9104 RTD10 STAGE 1 RTD Box 58 482 F 212 F RTD10 Temperature Stage 1 Pickup 9105 RTD10 STAGE 2 RTD Box 50 250 C 120 C RTD1...

Page 655: ...Ω Ni 120 Ω Ni 100 Ω Not connected RTD12 Type 9122A RTD12 LOCATION RTD Box Oil Ambient Winding Bearing Other Other RTD12 Location 9123 RTD12 STAGE 1 RTD Box 50 250 C 100 C RTD12 Temperature Stage 1 Pickup 9124 RTD12 STAGE 1 RTD Box 58 482 F 212 F RTD12 Temperature Stage 1 Pickup 9125 RTD12 STAGE 2 RTD Box 50 250 C 120 C RTD12 Temperature Stage 2 Pickup 9126 RTD12 STAGE 2 RTD Box 58 482 F 248 F RTD1...

Page 656: ... allocatable not preset allocatable blank neither preset nor allocatable No Description Function Typ e of Info rma tion Log Buffers Configurable in Matrix IEC 60870 5 103 Event Log ON OFF Trip Fault Log ON OFF Ground Fault Log ON OFF Marked in Oscill Record LED Binary Input Function Key Relay Chatter Suppression Type information number Data Unit General Interrogation Back Light on Light on Device ...

Page 657: ...p IntS P On Of f LED BO 16 0 24 1 Yes Setting Group C is active P GrpC act Change Group IntS P On Of f LED BO 16 0 25 1 Yes Setting Group D is active P GrpD act Change Group IntS P On Of f LED BO 16 0 26 1 Yes Control Authority Cntrl Auth Cntrl Authority DP On Of f LED BO Controlmode LOCAL ModeLOCAL Cntrl Authority DP On Of f LED BO Controlmode REMOTE ModeREMOTE Cntrl Authority IntS P On Of f LED ...

Page 658: ...Close Control Device IntS P LED BO Interlocking Disconnect switch Open Disc Open Control Device IntS P LED BO Interlocking Disconnect switch Close Disc Close Control Device IntS P LED BO Interlocking Ground switch Open GndSw Open Control Device IntS P LED BO Interlocking Ground switch Close GndSw Cl Control Device IntS P LED BO Unlock data transmission via BI UnlockDT Control Device IntS P LED BO ...

Page 659: ...tage Fuse blown No Volt Process Data SP On Of f LED BI BO CB 16 0 38 1 Yes Error Motor Voltage Err Mot V Process Data SP On Of f LED BI BO CB 24 0 18 1 1 Yes Error Control Voltage ErrCntrlV Process Data SP On Of f LED BI BO CB 24 0 18 2 1 Yes SF6 Loss SF6 Loss Process Data SP On Of f LED BI BO CB 24 0 18 3 1 Yes Error Meter Err Meter Process Data SP On Of f LED BI BO CB 24 0 18 4 1 Yes Transformer...

Page 660: ... BO 13 5 50 1 Yes 7 Setting Group Select Bit 0 Set Group Bit0 Change Group SP LED BI BO 13 5 51 1 Yes 8 Setting Group Select Bit 1 Set Group Bit1 Change Group SP LED BI BO 13 5 52 1 Yes 009 01 00 Failure EN100 Modul Failure Modul EN100 Modul 1 IntS P On Of f LED BO 009 01 01 Failure EN100 Link Channel 1 Ch1 Fail Ch1 EN100 Modul 1 IntS P On Of f LED BO 009 01 02 Failure EN100 Link Channel 2 Ch2 Fai...

Page 661: ...ings Check Settings Check Device General OUT LED BO 72 Level 2 change Level 2 change Device General OUT On Of f LED BO 73 Local setting change Local change Device General OUT 110 Event lost Event Lost Device General OUT _Ev On LED BO 13 5 13 0 1 No 113 Flag Lost Flag Lost Device General OUT On m LED BO 13 5 13 6 1 Yes 125 Chatter ON Chatter ON Device General OUT On Of f LED BO 13 5 14 5 1 Yes 126 ...

Page 662: ...BO 13 5 18 2 1 Yes 163 Failure Current Balance Fail I balance Meas urem Super v OUT On Of f LED BO 13 5 18 3 1 Yes 167 Failure Voltage Balance Fail V balance Meas urem Super v OUT On Of f LED BO 13 5 18 6 1 Yes 169 VT Fuse Failure alarm 10s VT FuseFail 10s Meas urem Super v OUT On Of f LED BO 13 5 18 8 1 Yes 170 VT Fuse Failure alarm instantaneous VT Fuse Fail Meas urem Super v OUT On Of f LED BO ...

Page 663: ...c tion 2 OUT On Of f LED BO 170 00 49 25 Sync Release of CLOSE Command 25 CloseRelease SYNC func tion 3 OUT On Of f LED BO 170 00 49 25 Sync Release of CLOSE Command 25 CloseRelease SYNC func tion 4 OUT On Of f LED BO 170 00 50 25 Synchronization Error 25 Sync Error SYNC func tion 1 OUT On Of f LED BO 170 00 50 25 Synchronization Error 25 Sync Error SYNC func tion 2 OUT On Of f LED BO 170 00 50 25...

Page 664: ...g request of Control 25 Measu req SYNC func tion 4 SP On Of f LED 170 20 08 BLOCK 25 group 1 BLK 25 1 SYNC func tion 1 SP On Of f LED BI 170 20 08 BLOCK 25 group 2 BLK 25 2 SYNC func tion 2 SP On Of f LED BI 170 20 08 BLOCK 25 group 3 BLK 25 3 SYNC func tion 3 SP On Of f LED BI 170 20 08 BLOCK 25 group 4 BLK 25 4 SYNC func tion 4 SP On Of f LED BI 170 20 09 25 Direct Command output 25direct CO SYN...

Page 665: ...n 25 Stop SYNC func tion 2 SP On Of f LED BI 170 20 12 25 Stop of synchroniza tion 25 Stop SYNC func tion 3 SP On Of f LED BI 170 20 12 25 Stop of synchroniza tion 25 Stop SYNC func tion 4 SP On Of f LED BI 170 20 13 25 Switch to V1 and V2 25 V1 V2 SYNC func tion 1 SP On Of f LED BI 170 20 13 25 Switch to V1 and V2 25 V1 V2 SYNC func tion 2 SP On Of f LED BI 170 20 13 25 Switch to V1 and V2 25 V1 ...

Page 666: ... LED BI 170 20 16 25 Switch to Sync 25 synchr SYNC func tion 1 SP On Of f LED BI 170 20 16 25 Switch to Sync 25 synchr SYNC func tion 2 SP On Of f LED BI 170 20 16 25 Switch to Sync 25 synchr SYNC func tion 3 SP On Of f LED BI 170 20 16 25 Switch to Sync 25 synchr SYNC func tion 4 SP On Of f LED BI 170 20 22 25 group 1 measure ment in progress 25 1 meas SYNC func tion 1 OUT On Of f LED BO 170 20 2...

Page 667: ...unc tion 2 OUT On Of f LED BO 170 20 26 25 Synchronization condi tions okay 25 Synchron SYNC func tion 3 OUT On Of f LED BO 170 20 26 25 Synchronization condi tions okay 25 Synchron SYNC func tion 4 OUT On Of f LED BO 170 20 27 25 Condition V1 V2 fulfilled 25 V1 V2 SYNC func tion 1 OUT On Of f LED BO 170 20 27 25 Condition V1 V2 fulfilled 25 V1 V2 SYNC func tion 2 OUT On Of f LED BO 170 20 27 25 C...

Page 668: ...oltage difference Vdiff okay 25 Vdiff ok SYNC func tion 1 OUT On Of f LED BO 170 20 30 25 Voltage difference Vdiff okay 25 Vdiff ok SYNC func tion 2 OUT On Of f LED BO 170 20 30 25 Voltage difference Vdiff okay 25 Vdiff ok SYNC func tion 3 OUT On Of f LED BO 170 20 30 25 Voltage difference Vdiff okay 25 Vdiff ok SYNC func tion 4 OUT On Of f LED BO 170 20 31 25 Frequency difference fdiff okay 25 fd...

Page 669: ... func tion 2 OUT On Of f LED BO 170 20 33 25 Frequency f1 fmax permissible 25 f1 SYNC func tion 3 OUT On Of f LED BO 170 20 33 25 Frequency f1 fmax permissible 25 f1 SYNC func tion 4 OUT On Of f LED BO 170 20 34 25 Frequency f1 fmin permissible 25 f1 SYNC func tion 1 OUT On Of f LED BO 170 20 34 25 Frequency f1 fmin permissible 25 f1 SYNC func tion 2 OUT On Of f LED BO 170 20 34 25 Frequency f1 fm...

Page 670: ...nc tion 4 OUT On Of f LED BO 170 20 37 25 Voltage V1 Vmax permissible 25 V1 SYNC func tion 1 OUT On Of f LED BO 170 20 37 25 Voltage V1 Vmax permissible 25 V1 SYNC func tion 2 OUT On Of f LED BO 170 20 37 25 Voltage V1 Vmax permissible 25 V1 SYNC func tion 3 OUT On Of f LED BO 170 20 37 25 Voltage V1 Vmax permissible 25 V1 SYNC func tion 4 OUT On Of f LED BO 170 20 38 25 Voltage V1 Vmin permissibl...

Page 671: ...YNC func tion 2 OUT On Of f LED BO 170 20 40 25 Voltage V2 Vmin permissible 25 V2 SYNC func tion 3 OUT On Of f LED BO 170 20 40 25 Voltage V2 Vmin permissible 25 V2 SYNC func tion 4 OUT On Of f LED BO 170 20 90 25 Vdiff too large V2 V1 25 V2 V1 SYNC func tion 1 OUT On Of f LED BO 170 20 90 25 Vdiff too large V2 V1 25 V2 V1 SYNC func tion 2 OUT On Of f LED BO 170 20 90 25 Vdiff too large V2 V1 25 V...

Page 672: ... OUT On Of f LED BO 170 20 93 25 fdiff too large f2 f1 25 f2 f1 SYNC func tion 1 OUT On Of f LED BO 170 20 93 25 fdiff too large f2 f1 25 f2 f1 SYNC func tion 2 OUT On Of f LED BO 170 20 93 25 fdiff too large f2 f1 25 f2 f1 SYNC func tion 3 OUT On Of f LED BO 170 20 93 25 fdiff too large f2 f1 25 f2 f1 SYNC func tion 4 OUT On Of f LED BO 170 20 94 25 alphadiff too large a2 a1 25 α2 α1 SYNC func ti...

Page 673: ...r SYNC func tion 2 OUT On Of f LED BO 170 20 96 25 Multiple selection of func groups 25 FG Error SYNC func tion 3 OUT On Of f LED BO 170 20 96 25 Multiple selection of func groups 25 FG Error SYNC func tion 4 OUT On Of f LED BO 170 20 97 25 Setting error 25 Set Error SYNC func tion 1 OUT On Of f LED BO 170 20 97 25 Setting error 25 Set Error SYNC func tion 2 OUT On Of f LED BO 170 20 97 25 Setting...

Page 674: ... 21 03 25 CLOSE command is BLOCKED 25 CLOSE BLK SYNC func tion 1 OUT On Of f LED BO 170 21 03 25 CLOSE command is BLOCKED 25 CLOSE BLK SYNC func tion 2 OUT On Of f LED BO 170 21 03 25 CLOSE command is BLOCKED 25 CLOSE BLK SYNC func tion 3 OUT On Of f LED BO 170 21 03 25 CLOSE command is BLOCKED 25 CLOSE BLK SYNC func tion 4 OUT On Of f LED BO 170 23 32 Sync Synchronization cond f syn Sync f syn SY...

Page 675: ... OUT On Of f LED BO 181 Error A D converter Error A D conv Device General OUT On Of f LED BO 183 Error Board 1 Error Board 1 Device General OUT On Of f LED BO 184 Error Board 2 Error Board 2 Device General OUT On Of f LED BO 185 Error Board 3 Error Board 3 Device General OUT On Of f LED BO 186 Error Board 4 Error Board 4 Device General OUT On Of f LED BO 187 Error Board 5 Error Board 5 Device Gene...

Page 676: ...eted Wave deleted Osc Fault Rec OUT _Ev On LED BO 13 5 20 3 1 No 220 Error Range CT Ph wrong CT Ph wrong Device General OUT On Of f 234 21 00 27 59 blocked via opera tion 27 59 blk 27 59 O U Volt IntS P On Of f LED BO 235 21 10 BLOCK Function 00 BLOCK 00 Flx SP On Of f On Off LED BI FK TO NL IN E BO 235 21 11 Function 00 instanta neous TRIP 00 instant Flx SP On Of f On Off LED BI FK TO NL IN E BO ...

Page 677: ...BLOCKED Flx OUT On Of f On Off LED BO 235 21 19 Function 00 is switched OFF 00 OFF Flx OUT On Of f LED BO 235 21 20 Function 00 is ACTIVE 00 ACTIVE Flx OUT On Of f LED BO 235 21 21 Function 00 picked up 00 picked up Flx OUT On Of f On Off LED BO 235 21 22 Function 00 Pickup Phase A 00 pickup A Flx OUT On Of f On Off LED BO 235 21 23 Function 00 Pickup Phase B 00 pickup B Flx OUT On Of f On Off LED...

Page 678: ...ure VT circuit 2 pole broken wire VT b w 2 pole Meas urem Super v OUT On Of f LED BO 258 Failure VT circuit 3 pole broken wire VT b w 3 pole Meas urem Super v OUT On Of f LED BO 264 Failure RTD Box 1 Fail RTD Box 1 RTD Box OUT On Of f LED BO 267 Failure RTD Box 2 Fail RTD Box 2 RTD Box OUT On Of f LED BO 268 Supervision Pressure Superv Pressure Measure ment OUT On Of f LED BO 269 Supervision Tempe...

Page 679: ...ts MV OUT On Of f LED BO 13 5 23 9 1 Yes 284 Set Point 37 1 Undercur rent alarm SP 37 1 alarm Set Points MV OUT On Of f LED BO 13 5 24 4 1 Yes 285 Set Point 55 Power factor alarm SP PF 55 alarm Set Points MV OUT On Of f LED BO 13 5 24 5 1 Yes 301 Power System fault Pow Sys Flt Device General OUT On Of f On Off 13 5 23 1 2 Yes 302 Fault Event Fault Event Device General OUT On 13 5 23 2 2 Yes 303 se...

Page 680: ...MiMa Reset Min Max meter SP On LED BI BO 400 P MIN MAX Buffer Reset P MiMa Reset Min Max meter SP On LED BI BO 401 S MIN MAX Buffer Reset S MiMa Reset Min Max meter SP On LED BI BO 402 Q MIN MAX Buffer Reset Q MiMa Reset Min Max meter SP On LED BI BO 403 Idmd MIN MAX Buffer Reset Idmd MiMaReset Min Max meter SP On LED BI BO 404 Pdmd MIN MAX Buffer Reset Pdmd MiMaR eset Min Max meter SP On LED BI B...

Page 681: ... current Ic Ic P System Data 2 VI ON OFF 15 0 17 9 4 No 545 Time from Pickup to drop out PU Time Device General VI ON OFF 546 Time from Pickup to TRIP TRIP Time Device General VI ON OFF 561 Manual close signal detected Man Clos Detect P System Data 2 OUT On Of f LED BO 916 Increment of active energy WpΔ Energy 917 Increment of reactive energy WqΔ Energy 1020 Counter of operating hours Op Hours Sta...

Page 682: ...r OUT On LED BO 1125 Fault Locator Loop CG FL Loop CG Fault Locator OUT On LED BO 1126 Fault Locator Loop AB FL Loop AB Fault Locator OUT On LED BO 1127 Fault Locator Loop BC FL Loop BC Fault Locator OUT On LED BO 1128 Fault Locator Loop CA FL Loop CA Fault Locator OUT On LED BO 1132 Fault location invalid Flt Loc invalid Fault Locator OUT On LED BO 1201 BLOCK 64 BLOCK 64 Sens Gnd Fault SP On Of f...

Page 683: ...TRIP 50Ns 1 TRIP Sens Gnd Fault OUT On On Off m LED BO 15 1 12 6 2 Yes 1227 51Ns picked up 51Ns Pickup Sens Gnd Fault OUT On Off LED BO 15 1 12 7 2 Yes 1229 51Ns TRIP 51Ns TRIP Sens Gnd Fault OUT On m LED BO 15 1 12 9 2 Yes 1230 Sensitive ground fault detection BLOCKED Sens Gnd block Sens Gnd Fault OUT On Of f On Off LED BO 15 1 13 0 1 Yes 1264 Corr Resistive Earth current IEEa Sens Gnd Fault VI O...

Page 684: ...Yes 1404 50BF Activate 3I0 threshold 50BFactiv 3I0 50BF BkrFai lure SP On Of f LED BI BO 1431 50BF initiated externally 50BF ext SRC 50BF BkrFai lure SP On Of f LED BI BO 16 6 10 4 1 Yes 1451 50BF is switched OFF 50BF OFF 50BF BkrFai lure OUT On Of f LED BO 16 6 15 1 1 Yes 1452 50BF is BLOCKED 50BF BLOCK 50BF BkrFai lure OUT On Of f On Off LED BO 16 6 15 2 1 Yes 1453 50BF is ACTIVE 50BF ACTIVE 50B...

Page 685: ...nt Alarm I alarm 49 O L I Alarm 49 Th Over load OUT On Of f LED BO 16 7 15 1 Yes 1516 49 Overload Alarm Near Thermal Trip 49 O L Θ Alarm 49 Th Over load OUT On Of f LED BO 16 7 16 1 Yes 1517 49 Winding Overload 49 Winding O L 49 Th Over load OUT On Of f LED BO 16 7 17 1 Yes 1521 49 Thermal Overload TRIP 49 Th O L TRIP 49 Th Over load OUT On m LED BO 16 7 21 2 Yes 1580 49 Reset of Thermal Overload ...

Page 686: ... 51 PH OFF 50 51 Overcur OUT On Of f LED BO 60 21 1 Yes 1752 50 51 O C is BLOCKED 50 51 PH BLK 50 51 Overcur OUT On Of f On Off LED BO 60 22 1 Yes 1753 50 51 O C is ACTIVE 50 51 PH ACT 50 51 Overcur OUT On Of f LED BO 60 23 1 Yes 1756 50N 51N is OFF 50N 51N OFF 50 51 Overcur OUT On Of f LED BO 60 26 1 Yes 1757 50N 51N is BLOCKED 50N 51N BLK 50 51 Overcur OUT On Of f On Off LED BO 60 27 1 Yes 1758 ...

Page 687: ... 50 2 TimeOut 50 51 Overcur OUT LED BO 60 49 2 Yes 1805 50 2 TRIP 50 2 TRIP 50 51 Overcur OUT On m LED BO 16 0 91 2 No 1810 50 1 picked up 50 1 picked up 50 51 Overcur OUT On Off LED BO 60 76 2 Yes 1814 50 1 Time Out 50 1 TimeOut 50 51 Overcur OUT LED BO 60 53 2 Yes 1815 50 1 TRIP 50 1 TRIP 50 51 Overcur OUT On m LED BO 16 0 90 2 No 1820 51 picked up 51 picked up 50 51 Overcur OUT On Off LED BO 60...

Page 688: ... 50 51 Overcur OUT On Off LED BO 60 10 3 2 Yes 1843 Cross blk PhX blocked PhY INRUSH X BLK 50 51 Overcur OUT On Off LED BO 60 10 4 2 Yes 1851 50 1 BLOCKED 50 1 BLOCKED 50 51 Overcur OUT On Of f On Off LED BO 60 10 5 1 Yes 1852 50 2 BLOCKED 50 2 BLOCKED 50 51 Overcur OUT On Of f On Off LED BO 60 10 6 1 Yes 1853 50N 1 BLOCKED 50N 1 BLOCKED 50 51 Overcur OUT On Of f On Off LED BO 60 10 7 1 Yes 1854 5...

Page 689: ...is BLOCKED 67 3 BLOCKED 67 Direct O C OUT On Of f On Off LED BO 2614 BLOCK 67N 67N TOC BLK 67N 67NTOC 67 Direct O C SP LED BI BO 2615 BLOCK 67 2 BLOCK 67 2 67 Direct O C SP LED BI BO 63 73 1 Yes 2616 BLOCK 67N 2 BLOCK 67N 2 67 Direct O C SP LED BI BO 63 74 1 Yes 2617 BLOCK 67 3 BLOCK 67 3 67 Direct O C SP LED BI BO 2618 BLOCK 67N 3 BLOCK 67N 3 67 Direct O C SP LED BI BO 2621 BLOCK 67 1 BLOCK 67 1 ...

Page 690: ...ED BO 63 67 2 Yes 2646 67N 2 picked up 67N 2 picked up 67 Direct O C OUT On Off LED BO 63 62 2 Yes 2647 67 2 Time Out 67 2 Time Out 67 Direct O C OUT LED BO 63 71 2 Yes 2648 67N 2 Time Out 67N 2 Time Out 67 Direct O C OUT LED BO 63 63 2 Yes 2649 67 2 TRIP 67 2 TRIP 67 Direct O C OUT On m LED BO 63 72 2 Yes 2651 67 67 TOC switched OFF 67 67 TOC OFF 67 Direct O C OUT On Of f LED BO 63 10 1 Yes 2652 ...

Page 691: ...T On Off LED BO 63 30 2 Yes 2674 67 TOC Time Out 67 TOC Time Out 67 Direct O C OUT LED BO 63 34 2 Yes 2675 67 TOC TRIP 67 TOC TRIP 67 Direct O C OUT On m LED BO 63 35 2 Yes 2676 67 TOC disk emulation is ACTIVE 67 TOC DiskPU 67 Direct O C OUT LED BO 2677 67N TOC is BLOCKED 67N TOC BLOCKED 67 Direct O C OUT On Of f On Off LED BO 63 96 1 Yes 2678 67 3 TRIP 67 3 TRIP 67 Direct O C OUT On LED BO 2679 6...

Page 692: ...D BO 63 54 2 Yes 2696 67 67N TRIP 67 67N TRIP 67 Direct O C OUT On m LED BO 63 55 2 Yes 2697 67 3 picked up 67 3 picked up 67 Direct O C OUT On Off LED BO 2698 67N 3 picked up 67N 3 picked up 67 Direct O C OUT On Off LED BO 2699 67 3 Time Out 67 3 Time Out 67 Direct O C OUT LED BO 2700 67N 3 Time Out 67N 3 Time Out 67 Direct O C OUT LED BO 2701 79 ON 79 ON 79M Auto Recl SP On Of f LED BI BO 40 1 1...

Page 693: ...ay 79 DT St Delay 79M Auto Recl SP On Of f LED BI BO 2781 79 Auto recloser is switched OFF 79 OFF 79M Auto Recl OUT On LED BO 40 81 1 Yes 2782 79 Auto recloser is switched ON 79 ON 79M Auto Recl IntS P On Of f LED BO 16 0 16 1 Yes 2784 79 Auto recloser is NOT ready 79 is NOT ready 79M Auto Recl OUT On Of f LED BO 16 0 13 0 1 Yes 2785 79 Auto reclose is dynamically BLOCKED 79 DynBlock 79M Auto Recl...

Page 694: ...cycle running 79 1stCyc run 79M Auto Recl OUT On LED BO 2845 79 2nd cycle running 79 2ndCyc run 79M Auto Recl OUT On LED BO 2846 79 3rd cycle running 79 3rdCyc run 79M Auto Recl OUT On LED BO 2847 79 4th or higher cycle running 79 4thCyc run 79M Auto Recl OUT On LED BO 2851 79 Close command 79 Close 79M Auto Recl OUT On m LED BO 16 0 12 8 2 No 2862 79 cycle successful 79 Successful 79M Auto Recl O...

Page 695: ...en sion release 79 4 CycZo neRel 79M Auto Recl OUT LED BO 2896 No of 1st AR cycle CLOSE commands 3pole 79 Close1 3p Statistics VI 2898 No of higher AR cycle CLOSE commands 3p 79 Close2 3p Statistics VI 2899 79 Close request to Control Function 79 CloseRequest 79M Auto Recl OUT On LED BO 4601 52 a contact OPEN if bkr is open 52 a P System Data 2 SP On Of f LED BI BO 4602 52 b contact OPEN if bkr is...

Page 696: ...alarm Rot overl alarm 48 66 Motorprot OUT On Of f LED BO 5143 BLOCK 46 BLOCK 46 46 Negative Seq SP LED BI BO 70 12 6 1 Yes 5145 Reverse Phase Rotation Reverse Rot P System Data 1 SP On Of f LED BI BO 5147 Phase rotation ABC Rota tion ABC P System Data 1 OUT On Of f LED BO 70 12 8 1 Yes 5148 Phase rotation ACB Rota tion ACB P System Data 1 OUT On Of f LED BO 70 12 9 1 Yes 5151 46 switched OFF 46 OF...

Page 697: ...BLOCK 81 4 BLOCK 81 4 81 O U Freq SP On Of f LED BI BO 70 18 0 1 Yes 5211 81 OFF 81 OFF 81 O U Freq OUT On Of f LED BO 70 18 1 1 Yes 5212 81 BLOCKED 81 BLOCKED 81 O U Freq OUT On Of f On Off LED BO 70 18 2 1 Yes 5213 81 ACTIVE 81 ACTIVE 81 O U Freq OUT On Of f LED BO 70 18 3 1 Yes 5214 81 Under Voltage Block 81 Under V Blk 81 O U Freq OUT On Of f On Off LED BO 70 18 4 1 Yes 5232 81 1 picked up 81 ...

Page 698: ...Ph OUT On Of f On Off LED BO 5963 50 1Ph is ACTIVE 50 1Ph ACTIVE 50 1Ph OUT On Of f LED BO 5966 50 1Ph 1 is BLOCKED 50 1Ph 1 BLK 50 1Ph OUT On Of f On Off LED BO 5967 50 1Ph 2 is BLOCKED 50 1Ph 2 BLK 50 1Ph OUT On Of f On Off LED BO 5971 50 1Ph picked up 50 1Ph Pickup 50 1Ph OUT On Off LED BO 5972 50 1Ph TRIP 50 1Ph TRIP 50 1Ph OUT On LED BO 5974 50 1Ph 1 picked up 50 1Ph 1 PU 50 1Ph OUT On Off LE...

Page 699: ... Inr 27 Q OUT On Of f On Off LED BO 74 22 5 2 Yes 6503 BLOCK 27 undervoltage protection BLOCK 27 27 59 O U Volt SP LED BI BO 74 3 1 Yes 6505 27 Switch current super vision ON 27 I SUPRVSN 27 59 O U Volt SP On Of f LED BI BO 74 5 1 Yes 6506 BLOCK 27 1 Under voltage protection BLOCK 27 1 27 59 O U Volt SP On Of f LED BI BO 74 6 1 Yes 6508 BLOCK 27 2 Under voltage protection BLOCK 27 2 27 59 O U Volt...

Page 700: ... 6540 27 2 Undervoltage TRIP 27 2 TRIP 27 59 O U Volt OUT On LED BO 74 40 2 Yes 6565 59 Overvoltage protec tion switched OFF 59 OFF 27 59 O U Volt OUT On Of f LED BO 74 65 1 Yes 6566 59 Overvoltage protec tion is BLOCKED 59 BLOCKED 27 59 O U Volt OUT On Of f On Off LED BO 74 66 1 Yes 6567 59 Overvoltage protec tion is ACTIVE 59 ACTIVE 27 59 O U Volt OUT On Of f LED BO 74 67 1 Yes 6568 59 1 picked ...

Page 701: ...74TC 74TC Trip Circ SP LED BI BO 6852 74TC Trip circuit superv trip relay 74TC trip rel 74TC Trip Circ SP On Of f LED BI BO 17 0 51 1 Yes 6853 74TC Trip circuit superv brk relay 74TC brk rel 74TC Trip Circ SP On Of f LED BI BO 17 0 52 1 Yes 6861 74TC Trip circuit supervi sion OFF 74TC OFF 74TC Trip Circ OUT On Of f LED BO 17 0 53 1 Yes 6862 74TC Trip circuit supervi sion is BLOCKED 74TC BLOCKED 74...

Page 702: ... Tsum exp Intermit EF OUT On LED BO 15 2 15 2 No 6929 Interm E F reset time running IEF Tres run Intermit EF OUT On Off LED BO 15 2 16 2 Yes 6930 Interm E F trip IEF Trip Intermit EF OUT On LED BO 15 2 17 2 No 6931 Max RMS current value of fault Iie In Intermit EF VI ON OFF 15 2 18 4 No 6932 No of detections by stage Iie Nos IIE Intermit EF VI ON OFF 15 2 19 4 No 6951 Block directional interm E F ...

Page 703: ... 50 51 Overcur OUT On Of f LED BO 60 92 1 Yes 7557 InRush BLOCKED InRush BLK 50 51 Overcur OUT On Of f On Off LED BO 60 93 1 Yes 7558 InRush Ground detected InRush Gnd Det 50 51 Overcur OUT On Off LED BO 60 94 2 Yes 7559 67 1 InRush picked up 67 1 InRushPU 50 51 Overcur OUT On Off LED BO 60 84 2 Yes 7560 67N 1 InRush picked up 67N 1 InRushPU 50 51 Overcur OUT On Off LED BO 60 85 2 Yes 7561 67 TOC ...

Page 704: ...ad Jam pickup 48 66 Motorprot OUT On Off LED BO 10026 Load Jam Protection TRIP Load Jam TRIP 48 66 Motorprot OUT On Off LED BO 10027 Startup Duration 1 Start Duration1 Mot Statis tics VI 10028 Startup Current 1 Star tupCurrent1 Mot Statis tics VI 10029 Startup Voltage 1 Star tupVoltage1 Mot Statis tics VI 10030 Total Number of Motor Starts Nr of Mot Start Mot Statis tics VI 10031 Total Motor Runni...

Page 705: ...artup Duration 5 Start Duration5 Mot Statis tics VI 10047 Startup Current 5 Star tupCurrent5 Mot Statis tics VI 10048 Startup Voltage 5 Star tupVoltage5 Mot Statis tics VI 14101 Fail RTD broken wire shorted Fail RTD RTD Box OUT On Of f LED BO 14111 Fail RTD 1 broken wire shorted Fail RTD 1 RTD Box OUT On Of f LED BO 14112 RTD 1 Temperature stage 1 picked up RTD 1 St 1 p up RTD Box OUT On Of f LED ...

Page 706: ...up RTD Box OUT On Of f LED BO 14151 Fail RTD 5 broken wire shorted Fail RTD 5 RTD Box OUT On Of f LED BO 14152 RTD 5 Temperature stage 1 picked up RTD 5 St 1 p up RTD Box OUT On Of f LED BO 14153 RTD 5 Temperature stage 2 picked up RTD 5 St 2 p up RTD Box OUT On Of f LED BO 14161 Fail RTD 6 broken wire shorted Fail RTD 6 RTD Box OUT On Of f LED BO 14162 RTD 6 Temperature stage 1 picked up RTD 6 St...

Page 707: ...D Box OUT On Of f LED BO 14193 RTD 9 Temperature stage 2 picked up RTD 9 St 2 p up RTD Box OUT On Of f LED BO 14201 Fail RTD10 broken wire shorted Fail RTD10 RTD Box OUT On Of f LED BO 14202 RTD10 Temperature stage 1 picked up RTD10 St 1 p up RTD Box OUT On Of f LED BO 14203 RTD10 Temperature stage 2 picked up RTD10 St 2 p up RTD Box OUT On Of f LED BO 14211 Fail RTD11 broken wire shorted Fail RTD...

Page 708: ...o Ir x ΣI x A Statistics VI 16002 Sum Current Exponentia tion Ph B to Ir x ΣI x B Statistics VI 16003 Sum Current Exponentia tion Ph C to Ir x ΣI x C Statistics VI 16005 Threshold Sum Curr Exponent exceeded Threshold ΣI x SetPoint Sta t OUT On Of f LED BO 16006 Residual Endurance Phase A Resid Endu A Statistics VI 16007 Residual Endurance Phase B Resid Endu B Statistics VI 16008 Residual Endurance...

Page 709: ...er Wear Logic blk Ir CB Isc CB 52WL blk I PErr P System Data 2 OUT On Of f LED BO 16028 52 Breaker W Log blk SwCyc Isc SwCyc Ir 52WL blk n PErr P System Data 2 OUT On Of f LED BO 16029 Sens gnd flt 51Ns BLOCKED Setting Error 51Ns BLK PaErr Sens Gnd Fault OUT On Of f LED BO 16030 Angle between 3Vo and INsens φ 3Vo INs Sens Gnd Fault VI ON OF F 16034 50Ns 1 not in tripping range 50Ns 1n TRrange Sens...

Page 710: ...y Relay Chatter Suppression Type information number Data Unit General Interrogation 31001 Q1 operationcounter Q1 OpCnt Control Device VI 31002 Q2 operationcounter Q2 OpCnt Control Device VI 31008 Q8 operationcounter Q8 OpCnt Control Device VI 31009 Q9 operationcounter Q9 OpCnt Control Device VI Functions Settings Information F 3 Information List 710 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 E...

Page 711: ...balance Fail V balance Fail Ph Seq I Fail Ph Seq V Fail RTD Box 1 Fail RTD Box 2 161 Fail I Superv 163 Fail I balance 171 Fail Ph Seq 175 176 Fail Ph Seq I Fail Ph Seq V 255 Fail VT circuit 253 170 VT brk wire VT FuseFail 501 Relay PICKUP 1517 5159 5165 5166 5971 5974 5977 1761 2691 1224 1221 1215 6423 49 Winding O L 46 2 picked up 46 1 picked up 46 TOC pickedup 50 1Ph Pickup 50 1Ph 1 PU 50 1Ph 2 ...

Page 712: ...2696 00 TRIP 48 TRIP 64 TRIP 50Ns 2 TRIP 50Ns 1 TRIP 51Ns TRIP 81 1 TRIP 81 2 TRIP 81 3 TRIP 81 4 TRIP IEF Trip IEFdir Trip Load Jam TRIP 46 TRIP 27 1 TRIP 27 2 TRIP 59 1 TRIP 59 2 TRIP 50BF TRIP 50BF TRIP 2 50 1Ph TRIP 49 Th O L TRIP 50 N 51 N TRIP 67 67N TRIP Functions Settings Information F 4 Group Alarms 712 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 713: ...C CD DD Number of TRIPs of TRIPs Statistics CFC CD DD Operating hours greater than OpHour SetPoint Stat CFC CD DD 170 20 50 V1 V1 SYNC function 1 CFC CD DD 170 20 50 V1 V1 SYNC function 2 CFC CD DD 170 20 50 V1 V1 SYNC function 3 CFC CD DD 170 20 50 V1 V1 SYNC function 4 CFC CD DD 170 20 51 f1 f1 SYNC function 1 CFC CD DD 170 20 51 f1 f1 SYNC function 2 CFC CD DD 170 20 51 f1 f1 SYNC function 3 CF...

Page 714: ...DD 170 20 56 dalpha dα SYNC function 1 CFC CD DD 170 20 56 dalpha dα SYNC function 2 CFC CD DD 170 20 56 dalpha dα SYNC function 3 CFC CD DD 170 20 56 dalpha dα SYNC function 4 CFC CD DD 601 Ia Ia Measurement 134 137 No 9 1 CFC CD DD 602 Ib Ib Measurement 160 145 Yes 3 1 CFC CD DD 134 137 No 9 2 603 Ic Ic Measurement 134 137 No 9 3 CFC CD DD 604 In In Measurement 134 137 No 9 4 CFC CD DD 605 I1 po...

Page 715: ...s INs Reac Measurement 134 137 No 9 16 CFC CD DD 805 Temperature of Rotor ΘR ΘRtrip Measurement CFC CD DD 807 Thermal Overload Θ Θtrip Measurement CFC CD DD 809 Time untill release of reclose blocking T reclose Measurement CFC CD DD 830 INs Senstive Ground Fault Current INs Measurement 134 118 No 9 3 CFC CD DD 831 3Io zero sequence 3Io Measurement CFC CD DD 832 Vo zero sequence Vo Measurement 134 ...

Page 716: ...Min Max meter CD DD 855 Ic Min Ic Min Min Max meter CD DD 856 Ic Max Ic Max Min Max meter CD DD 857 I1 positive sequence Minimum I1 Min Min Max meter CD DD 858 I1 positive sequence Maximum I1 Max Min Max meter CD DD 859 Va n Min Va nMin Min Max meter CD DD 860 Va n Max Va nMax Min Max meter CD DD 861 Vb n Min Vb nMin Min Max meter CD DD 862 Vb n Max Vb nMax Min Max meter CD DD 863 Vc n Min Vc nMin...

Page 717: ...Forward WqForward Energy 133 52 No 205 CFC CD DD 928 Wp Reverse WpReverse Energy 133 53 No 205 CFC CD DD 929 Wq Reverse WqReverse Energy 133 54 No 205 CFC CD DD 963 I A demand Ia dmd Demand meter CFC CD DD 964 I B demand Ib dmd Demand meter CFC CD DD 965 I C demand Ic dmd Demand meter CFC CD DD 991 Pressure Press Measurement CFC CD DD 992 Temperature Temp Measurement CFC CD DD 996 Transducer 1 Td1...

Page 718: ...int Stat CFC CD DD 16017 Threshold Sum Squared Current Integral ΣI 2t SetPoint Stat CFC CD DD 16031 Angle between 3Vo and INsens φ 3Vo INs Measurement CFC CD DD 16032 In2 In2 Measurement CFC CD DD 30701 Pa active power phase A Pa Measurement CFC CD DD 30702 Pb active power phase B Pb Measurement CFC CD DD 30703 Pc active power phase C Pc Measurement CFC CD DD 30704 Qa reactive power phase A Qa Mea...

Page 719: ...417 G1176 C152 3 DIGSI CFC Manual E50417 H1176 C098 4 SIPROTEC SIGRA 4 Manual E50417 H1176 C070 5 Additional description for the protection of explosion protected motors of protection type increased safety e C53000 B1174 C170 SIPROTEC 4 7SJ62 64 Manual 719 C53000 G1140 C207 8 Edition 08 2016 ...

Page 720: ...720 SIPROTEC 4 7SJ62 64 Manual C53000 G1140 C207 8 Edition 08 2016 ...

Page 721: ...CFC is a graphical editor with which a program can be created and configured by using ready made blocks CFC blocks Blocks are parts of the user program delimited by their function their structure or their purpose Chatter ON A rapidly intermittent input for example due to a relay contact fault is switched off after a configurable monitoring time and can thus not generate any further signal changes ...

Page 722: ... contents of the area selected in the navigation window for example indications measured values etc of the information lists or the function selection for the device configuration DCF77 The extremely precise official time is determined in Germany by the Physikalisch Technische Bundesanstalt PTB in Braunschweig The atomic clock station of the PTB transmits this time via the long wave time signal tr...

Page 723: ...paratus to function fault free in a specified environment without influencing the environment unduly EMC Electromagnetic compatibility ESD protection ESD protection is the total of all the means and measures used to protect electrostatic sensitive devices EVA Limiting value user defined ExBPxx External bit pattern indication via an ETHERNET connection device specific Bit pattern indication ExC Ext...

Page 724: ...ication system They serve for direct information exchange among the relays This mechanism implements cross communication between bay units GPS Global Positioning System Satellites with atomic clocks on board orbit the earth twice a day on different paths in approx 20 000 km They transmit signals which also contain the GPS universal time The GPS receiver determines its own position from the signals...

Page 725: ...nds These are transmitted to the modem within the framework of modem initialization The commands can for example force specific settings for the modem Inter relay communication IRC combination IntSP Internal single point indication Single point indication IntSP_Ev Internal indication Spontaneous event Fleeting indication Single point indication IRC combination Inter Relay Communication IRC is used...

Page 726: ...value energy purchase supply energy transportation MLFB MLFB is the abbreviation for MaschinenLesbare FabrikateBezeichnung machine readable product designa tion This is the equivalent of an order number The type and version of a SIPROTEC 4 device is coded in the order number Modem connection This object type contains information on both partners of a modem connection the local modem and the remote...

Page 727: ...ection to a SIPROTEC 4 device This connection can be implemented as a direct connection as a modem connection or as a PROFIBUS FMS connection OUT Output Indication OUT_Ev Output indication Spontaneous event Fleeting indication Parameterization Comprehensive term for all setting work on the device The parameterization is done with DIGSI or sometimes also directly on the device Parameter set The par...

Page 728: ...on RSxxx interface Serial interfaces RS232 RS422 485 Service interface Rear serial interface on the devices for connecting DIGSI for example via modem SICAM PAS Power Automation System Substation control system The range of possible configurations spans from integrated standalone systems SICAM PAS and M C with SICAM PAS CC on one computer to separate hardware for SICAM PAS and SICAM PAS CC to dist...

Page 729: ... may only exchange data with a master after being prompted to do so by the master SIPROTEC 4 devices operate as slaves SP Single point indication SP_W Single point indication Spontaneous event Fleeting indication Single point indication System interface Rear serial interface on the devices for connecting to a substation controller via IEC or PROFIBUS TI Transformer Tap Indication Time stamp Time s...

Page 730: ...ervices A VD can be a physical device a module of a device or a software module VD address The VD address is assigned automatically by DIGSI Manager It exists only once in the entire project and thus serves to identify unambiguously a real SIPROTEC 4 device The VD address assigned by DIGSI Manager must be transferred to the SIPROTEC 4 device in order to allow communication with DIGSI Device Editor...

Page 731: ...emperature Detection 431 Checking Termination 413 Checking Time Synchronization Interface 413 Checking Time Synchronization Port 578 Checking User Defined Functions 424 Checking Voltage Transformer Miniature Circuit Breaker VT mcb 424 Circuit Breaker Maintenance 513 Circuit Breaker Monitoring 242 Circuit Breaker Status Detection 242 Climatic Stress Tests 447 Clock 514 Command dependent Messages 37...

Page 732: ...cos φ sin φ 203 Ground Fault Detection 484 Current Elements with cos φ sin φ 201 Current Elements with U0 I0 φ 207 Determination of Direction with cos φ sin φ 201 Logic with U0 I0 φ 208 Trip delay with U0 I0 φ 219 Tripping Area with U0 I0 φ 208 voltage element with cos φ sin φ 200 Voltage Element with U0 I0 φ 206 H Hardware Monitoring 180 High impedance Protection 121 Srensitivity 123 Stability 12...

Page 733: ...Mounting 519 Phase Rotation 314 Phase Sequence Monitoring 185 Pickup Logic 315 Pickup Voltage 384 387 388 Pickup Voltage for BI1 to BI7 388 Pickup Voltage for BI4 bis BI11 384 387 Polarity Check for Current Input I 429 Power supply 438 R Rack Mounting 406 Reclosing Programs 239 Regulations 445 Reset of Stored LED Relays 37 Restart Threshold 150 Restart Time 150 Reverse Interlocking 72 Rotor Overlo...

Page 734: ...ts for the Configured Operating Devices 433 Tripping Logic 315 Two phase Overcurrent Protection 71 U Überstromzeitschutz einphasig Dropout Ratios 466 Underfrequency 163 Undervoltage Consideration 66 Undervoltage Protection 27 129 Undervoltage controlled reactive power protection 27 Q 480 User Interface 441 User defined Functions 504 V Vibration and Shock Stress during Steady State Opera tion 447 V...

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