Siemens Aktiengesellschaft Order no.: C53000-G1876-C102-7
Note
For safety purposes, please note instructions and warnings in the Preface.
Disclaimer of liability
We have checked the text of this manual against the hardware and
software described. However, deviations from the description
cannot be completely ruled out, so that no liability can be accepted
for any errors or omissions contained in the information given.
The information given in this document is reviewed regularly and
any necessary corrections will be included in subsequent editions.
We appreciate any suggestions for improvement.
We reserve the right to make technical improvements without
notice.
Document Version 4.71.01
Release date 08.2011
Copyright
Copyright © Siemens AG 2011. All rights reserved.
Dissemination or reproduction of this document, or evaluation and
communication of its contents, is not authorized except where ex-
pressly permitted. Violations are liable for damages. All rights re-
served, particularly for the purposes of patent application or trade-
mark registration.
Registered Trademarks
SIPROTEC, SINAUT , SICAM and DIGSI are registered trademarks
of Siemens AG. Other designations in this manual might be trade-
marks whose use by third parties for their own purposes would in-
fringe the rights of the owner.
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 3
Preface
Purpose of this Manual
This manual describes the functions, operati on, installati on and start-up of the High Voltage Bay Control Unit
6MD66x. In particular it contains:
• Information regarding the configuration of the device extent and descriptions of device functions and settings
→ Chapter 2;
• Instructions fo r mounting and commissioning → Chapter 3;
• Compilation of technical data→ Chapter 4;
• As well as a compilation of the most significant data for experienced users in Appendix A.
For general information on how to operate and configure SIPROTEC 4 device, please refer to the SIPROTEC
System Description /1/.
Target Audience
Protection engineers, commissioning engineers, personnel concerned with adjustment, checking, and service
of selective protection equipment, auto matic and control facilities, and personnel of electrical facilities and
power plants.
Scope of validity of the manual
This manual is valid for SIPROTEC 4 High Voltage Bay Control Unit 6MD66x; Firmware versi on V 4.82.
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 S tates relating to electromagnetic compatibility (EMC
Council Directive 2004/108/EC) and concerning electrical equipment for use within specified
voltage limits (Low-voltage directive 2006/95 EC).
This conformity is proved by tests conducted by Siemens AG in accordance with the Council
Directives in agreement with the generic standards EN61000-6-2 and EN 61000-6-4 for the
EMC directive, and with the standard EN 60255-27 for the low-voltage directive.
The device has been designed and produced for industrial use.
The product conforms with the international standard of the series IEC 60255 and the German
standard VDE 0435.
Additional Standards IEEE Std C37.90 (see Chapter 4, Technical Data")
Preface
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4
Additional Support
Should further information on the System SIPROTEC 4 be desired or should particular problems arise which
are not covered sufficiently for the purchaser's purpose, the matter should be referred to the local Siemens rep-
resentative.
Our Customer Support Center provides a 24-hour service.
Phone: +49 (180) 524-7000
Fax: +49 (180) 524-2471
E-mail: support.energy@siemens.com
Training Courses
Enquiries regarding individual training courses should be addressed to our Training Center:
Siemens AG
Siemens Power Academy TD
Humboldt Street 59
90459 Nuremberg
Phone: +49 (911) 433-7005
Fax: +49 (911) 433-7929
Internet: www.siemens.com/power-academy-td
Preface
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Safety Information
This manual does not constitute a complete index of all required safety measures for operation of the equip -
ment (module, device), as special operational conditions may require additional measures. However, it com-
prises 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 substantial material damage will result if proper precau-
tions are not taken.
WARNING!
indicates that death, severe personal injury or substantial property damage may result if proper precautions are
not taken.
Caution!
indicates that minor personal injury or property da mage may result if proper precautions are not taken. This
particularly applies to damage to or within the device itself and consequential damage thereof.
Note
indicates information on the device, handling of the de vice, or the respective part of the instruction manual
which is important to be noted.
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6
WARNING!
Qualified Pe rs onnel
Commissioning and operation of the equipment (module, device) as set out in this manual may only be carried
out by qualified personnel. Qu alified personnel in terms of the technical safety information as set out in this
manual are persons who are authorized to commission, activate, to ground and to designate devices, systems
and electrical circuits in accordance with the safety standards.
Use as prescribed
The operational equipment (device, module) may only be used for such applications as set out in the catalogue
and the technical description, and only in combination with third-party equipment recommended or approved
by Siemens.
The successful and safe operation of the device is dependent on proper handling, storage, installation, opera-
tion, and maintenance.
When operating an electrical equipment, certain parts of the device are inevitably subject to dangerous voltage.
Severe personal injury or property damage may result if the device is not handled properly.
Before any connections are made, the device must be grounded to the ground terminal.
All circuit components connected to the voltage supply may be subject to dangerous voltage.
Dangerous voltage may be present in the device even after the power supply voltage has been removed (ca-
pacitors can still 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.
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Deviations may be permitted in drawings and tables when the type of designator can be obviously derived from
the illustration.
The following symbols are used in drawings:
Device-internal logical input sign al
Device-internal (logical) output signal
Internal input signal of an analog quantity
External binary input signal with number (binary input, input indication)
External binary output signal with number (device indica tion)
External binary output signal with number (device indication) used as input
signal
Example of a parameter switch designated FUNCTION with address 1234
and the possib l e set ti n gs ON and OFF
Typographic and
Symbol Conventions To designate terms which refer in the text to information of the device or for the device, the
following fonts are used:
Parameter Names
Names of configuration and function parameters that actually appear on the device display
or on the computer screen (using the DIGSI software) are written in bold and monospaced
font (fixed width). The same applies to headings and menus.
1234A
Parameter addresses are writte n in the same character style as parameter names. In the
overview lists the suffix Ais added to the parameter addresses if the parameter is only acces-
sible in DIGSI via the option Display Additional Settings.
Parameter States
Possible settings of text parameters that actually appear on the device display or on the com-
puter screen (using the DIGSI software) are additionally written in italics. The same applies
to menu options.
„Indications“
Designators for information, which may be output by the device or required from other
devices or from the switch gear, are marked in a monospace type style in quotation marks.
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Besides these, graphical symbols are used according to IEC 60617-12 and IEC 60617-13 or symbols derived
from these standards. The most frequent symbols are the following:
Input signal of an analog quantity
OR gate
AND gate
Exclusive OR (antivalence): output is active if only one of the inputs is active
XNOR gate: Output active if both inputs are simultaneously active or inac-
tive.
Dynamic input signals (edge–triggered) above with positive, below with neg-
ative edge
One analog output signal is create d from multiple analog input signals.
Limit value stage with parameter address and parameter name
Timer (pickup delay T adjustable) with parameter address and parameter
name
Time stage (reset delay T, nonadjustable)
Edge-controlled time stage with effective time T
Static memory (RS flipflop) wit setting input (S), resetting in put (R), output
(Q) and inverted output (Q)
■
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Contents
1 Introduction. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15
1.1 Overall Operation. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .16
1.2 Application Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 19
1.3 Characteristics. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21
2 Functions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .25
2.1 General Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 26
2.1.1 Functional scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26
2.1.1.1 Configuring the Functional Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26
2.1.1.2 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26
2.1.1.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .27
2.1.2 Power System Data 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
2.1.2.1 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .28
2.1.2.2 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .29
2.1.3 Device, General Settings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .29
2.1.3.1 Function Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .29
2.1.3.2 Indications of the device. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .30
2.1.3.3 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .33
2.1.3.4 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .33
2.1.3.5 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 3
2.1.4 Oscillographic Fault Reco rds. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .35
2.1.4.1 Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .35
2.1.4.2 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .35
2.1.4.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .36
2.1.4.4 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 6
2.1.5 Protocol . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .36
2.1.5.1 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 6
2.2 Command Processing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .37
2.2.1 General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .37
2.2.1.1 Function Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .37
2.2.2 Control Device . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .38
2.2.2.1 Function Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .38
2.2.2.2 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
2.2.3 Control Authorization . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .40
2.2.3.1 Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 0
2.2.3.2 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 2
2.2.4 Process Data . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .42
2.2.4.1 Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 2
2.3 Indication Processing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .44
2.3.1 Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .44
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2.4 Measured value processing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .45
2.4.1 Measurement, Transducer Inputs 20 mA . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .45
2.4.1.1 Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .45
2.4.1.2 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .45
2.4.2 General Information on Transducer Blocks. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46
2.4.2.1 Functional Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .46
2.4.3 Parameterizing Transducer Blocks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .48
2.4.3.1 Configuring the Measuring Transducer . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .48
2.4.3.2 Allocating a Measuring Transducer . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .50
2.4.4 Measurement U. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .53
2.4.4.1 Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .53
2.4.4.2 Setting Notes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .53
2.4.4.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .53
2.4.4.4 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .53
2.4.5 Measurement I . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54
2.4.5.1 Functional Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54
2.4.5.2 Setting Notes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54
2.4.5.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54
2.4.5.4 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54
2.4.6 Measurement 1phase . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .55
2.4.6.1 Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .55
2.4.6.2 Setting Notes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .55
2.4.6.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .55
2.4.6.4 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .55
2.4.7 Measurement 3phase . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .56
2.4.7.1 Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .56
2.4.7.2 Setting Notes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .56
2.4.7.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .57
2.4.7.4 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .57
2.4.8 Measurement Aron . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .58
2.4.8.1 Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .58
2.4.8.2 Setting Notes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .58
2.4.8.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .58
2.4.8.4 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .59
2.5 Metered Value Processing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .60
2.5.1 Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .60
2.5.2 Using the Pulse Metered Value. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .61
2.5.3 Use Measured Value / Metered Value. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .63
2.6 Threshold-Switch . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
2.6.1 Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .66
2.6.2 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .67
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2.7 Circuit breaker synchronisation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .68
2.7.1 Function Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .68
2.7.1.1 Functioning. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .68
2.7.1.2 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .82
2.7.1.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .85
2.7.1.4 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8 6
2.7.2 SYNC function groups 6 - 8, special features . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .87
2.7.2.1 Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8 7
2.7.3 Parameterizing the SYNC function . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .88
2.7.3.1 Inserting the Synchronisation Function . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .88
2.7.3.2 Configuring Synchronisation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .89
2.8 Switchgear Interlocking . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .92
2.8.1 General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .92
2.8.2 Information overview . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .101
2.9 Circuit breaker failure protectio n (optional) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .102
2.9.1 Function Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .102
2.9.2 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .116
2.9.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .120
2.9.4 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .121
2.10 Automatic reclosure function (optional) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .122
2.10.1 Function Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .122
2.10.2 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .138
2.10.3 Settings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .145
2.10.4 Information List. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .148
2.11 Function control. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .150
2.11.1 Line Energization Recognition . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 150
2.11.2 Detection of the circuit breaker position . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .151
2.11.3 Open-pole Detector . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .153
2.11.4 Voltage Supervision . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .154
2.11.5 Pickup Logic for the Entire Device . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .155
2.11 .6 Tripping Logic of the Entire Device . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .156
2.11.7 Setting Notes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .158
2.12 Inter-relay communication through port C . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .159
2.12.1 Function Principle. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .160
2.12.2 Configuring Inter-relay Communication . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .162
2.12.3 Correlation between Number of Nodes and Transmission Time . . . . . . . . . . . . . . . . . . . . . . . . . .166
2.12.4 Selecting a Combination Node. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .167
2.12.5 Allocating Information of the Individual Devices Involved . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .169
2.12.6 Routing Information betwe en the Devices Involved. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 171
2.12.7 Setting Com mun i c a ti o n Parameters for Individua l De vices. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .173
2.12.8 Setting communication parameters for a combination. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .175
2.12.9 Checking and Updating Parameter Sets . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .177
2.12.10 Printing Combination Information. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .178
2.12.11 Time Synchronisation. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .180
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2.13 Inter relay communication with GOOSE through Ethernet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .181
2.13.1 Function Principle . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .182
2.13.2 Parameterizing the GOOSE Communication . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .183
2.13.3 Communication connection status. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 186
2.13.4 Selecting the GOOSE Nodes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18 6
2.13.5 Creating an IP Network with the System Configurator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .187
2.13.6 Routing Informatio n between Nodes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 188
2.13.7 Update Parameter Sets and Print Status. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 192
2.13.8 Time Synchronization . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .194
2.13.9 Setting Notes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .195
2.14 Connecting external instrument transformers. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .196
2.14.1 Function Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .196
2.14.2 Setting Notes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .197
2.15 Web Monitor . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .202
2.15.1 General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .203
2.15.2 Functions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .204
2.15.3 Operating Modes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .207
3 Mounting and Commissioning . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .209
3.1 Mounting and Connections . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .210
3.1.1 Configuration Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .210
3.1.2 Hardware Modifications. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 211
3.1.2.1 General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 211
3.1.2.2 Disassembly . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .212
3.1.2.3 Switching Elements on Printed Circuit Boards . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 215
3.1.2.4 Interface Modules . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .222
3.1.2.5 Reassembly. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .225
3.1.3 Mounting . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 226
3.1.3.1 Panel Flush Mounting . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .226
3.1.3.2 Installation in a Rack or Cabinet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 227
3.1.3.3 Mounting with detached operator panel. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .228
3.1.3.4 Mounting without operator panel . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 229
3.2 Checking Connections . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .231
3.2.1 Checki ng the Data Connections of the Serial Interfaces. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .231
3.2.2 Operator interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .231
3.2.3 Service / function interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 231
3.2.4 System interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .232
3.2.5 Termination . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .233
3.2.6 Time Synchronization Interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .233
3.2.7 Optical Fibres . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .234
3.2.8 Measurement Box . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 234
3.2.9 Checking the System Connections . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 235
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3.3 Commissioning . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .237
3.3.1 Test Mode / Transmission Block . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .238
3.3.2 Testing System Interfaces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .238
3.3.3 Checking the Binary Inputs and Outputs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .240
3.3.4 Checking for Breaker Failure Protection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .243
3.3.5 Triggering Oscillographic Recording for Test. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .245
3.3.6 Testing User-defined Functions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .246
3.3.7 Trip/Close Test for the Configured Resource . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .246
3.4 Final Preparation of the Device . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .247
4 Technical Data. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .249
4.1 General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .250
4.1.1 Analog Inputs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .250
4.1.2 Auxiliary voltage . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .252
4.1.3 Binary inputs and outputs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .252
4.1.4 Communications interfaces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .253
4.1.5 Electrical Test . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 257
4.1.6 Mechanical Tests . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .259
4.1.7 Climatic stress . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 260
4.1.8 Deployment Conditions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .260
4.1.9 Construction designs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .261
4.2 Switching device control . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .262
4.3 Circuit Breaker Synchronisation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .263
4.4 User defined functions (CFC) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .265
4.5 Operational measured values . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .270
4.6 Circuit Breaker Failure Protection (optional) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .272
4.7 Automatic Reclosure (optional) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 274
4.8 Inter-relay communication . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .275
4.9 External instrument transformers . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .276
4.10 Additional functions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .277
4.11 Dimensions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 278
4.11.1 Panel flush mounting and cabinet fl ush mounting . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .278
4.11.2 Surface mounting with detached operation panel or without operation panel . . . . . . . . . . . . .279
4.11.3 Detached Operator Panel . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .280
4.11.4 D-subminiature Connector of Dongle Cable (Panel or Cubicle Door Cutout) . . . . . . . . . . . . . . . .281
A Appendix . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .283
A.1 Ordering Information and Accessories . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .284
A.1.1 Ordering Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .284
A.1.1.1 6MD66x V 4.82 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .284
A.1.2 Accessories . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .286
A.2 Terminal Assignments . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .288
A.2.1 Panel Flush Mounting or Cabinet Mounting. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .288
A.2.2 Housing with Detached Operator Panel. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .294
A.2.3 Housing for installation without operator panel . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .299
Contents
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A.3 Connection Examples. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .303
A.3.1 Connection Examples for Measured Values and Synchronization . . . . . . . . . . . . . . . . . . . . . . . .303
A.3.2 Configuration Examples for Breaker Failu re Protection and Automatic Reclosure . . . . . . . . . . .308
A.3.3 Connection Examples for Measurement Boxes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .313
A.4 Default Settings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .314
A.4.1 LEDs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .314
A.4.2 Binary Input . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .314
A.4.3 Binary Output . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .314
A.4.4 Function Keys . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .315
A.4.5 Default Display . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .315
A.4.6 Pre-defined CFC Charts . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 316
A.5 Protocol-dependent Functions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 18
A.6 Functional Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .319
A.7 Settings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .321
A.8 Information List . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .336
A.9 Group Alarms . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .358
A.10 Measured Values . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .359
Literature. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .365
Glossary . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .367
Index . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .379
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Introduction 1
The SIPROTEC 6MD66x devices are introduced in this section. An overview of the devices is presented in their
application, characteristics, and scope of functions.
1.1 Overall Operation 16
1.2 Application Scope 19
1.3 Characteristics 21
Introduction
1.1 Overall Operation
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1.1 Overall Operation
The digital, high-voltage SIPROTEC 6MD66x bay controllers are equipped with a powerful microprocessor
system. All tasks, from issuing commands to circuit breakers to the acquisition of measured quantities are pro-
cessed in a completely digital way.
Figure 1-1 Hardware structure of the High Voltage Bay Control Unit 6MD66x
Introduction
1.1 Overall Operation
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Analog Inputs
The measuring inputs (ILx, Ux) convert the currents and voltages coming from the transformers and adapt them
to the level appropriate for the internal processing of the device. The device has three current inputs, four
voltage inputs and two transducer inputs (20 mA).
The current and voltage inputs can be used separately for measured value acquisition. Within the scope of con-
figuration, 1- or 3-phase evaluation functions are available for evaluation of th e analog inputs and evaluation
of measured quantities connected in an Aron connection.
With voltage inputs, both phase-earth and phase-phase voltages can be applied. In addition to a 3-phase
system, another reference voltage for synchronisation tasks or a displacement voltage Vn can be measured via
the fourth voltage input.
Furthermore, two measuring transducer inputs are available.
The analogue values are transferred further to the IA input amplifier group.
The input amplification IA stage provides high-resistance terminations for the analogue input quantities. It con-
sists of filters that are optimised with regard to bandwidth and processing speed.
The analogue-to-digital (AD) stage consists of a multiplexor, an analogue-to-d igital (A/D) converter and
memory components for the transmission of digital signals to the microcomputer system.
Microcomputer system
The control functions and the measurement quantities are processed in the microcomputer system µC. They
especially consist of:
• Control of command outputs,
• Processing of indication inputs,
• Recordin g of in di ca ti o ns,
• Control of signals for logical functions,
• Filtering and conditioning of the measured signals,
• Continuous monitoring of the measured quantities
• Monitoring the communication with other devices,
• Querying of limit values and time sequences,
• Management of the operating system and the associated functions such as data recording, real-time clock,
communication, interfaces, etc.
Binary Inputs and Outputs
Binary inputs and outputs from and to the bay controller are routed via the I/O modules (inputs and outputs).
The computer system obtains the information from the system (e.g remote resetting) or the external equipment
(e.g. blocking commands). Outputs are, in particular, commands to the switchgear units and indications for
remote signalling of important events and statuses.
Introduction
1.1 Overall Operation
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Front Elements
With devices with integrated or detached operator panel, information such as messages related to events,
states, measured values and the functional status of the device are provided via light-emitting diodes (LEDs)
and a display screen (LCD) on the front panel.
Integrated control and numerical keys combined with the LC display allow „local operator co mmunication“
between the operating staf f and the device. Via these elements all informati on of the device such as configu-
ration and setting parameters, operational indications and measured values can be accessed.
Another central function is the control of system equipment via the operator interface of the device.
Moreover , a front panel has a 9-pin D-subminiature connector for local communication with a personal comput-
er using DIGSI.
Serial Interfaces
Via the serial operator interface in the front panel, communication with a p erso nal comp uter usi ng the o per at-
ing program DIGSI is possible. This facilitates a comfortable handling of all device functions.
A serial service interface can likewise make communication via PC with the device possible by using DIGSI.
This port is especially well suited for the fixed wiring of the devices to the PC or operation via a modem.
The service interface can be used alternatively to connect two 7XV5662 measurement boxes. This enables
up to 16 external temperature, pressure or any 20-mA measured value s to be detected.
Via the serial systeminterface all device data can be transferred to a central evaluation unit or to a control
centre. Depending on the application, this interface, just like the service interface, can be equipped with varying
physical transmission modes and different protocols.
The serial interface for inter-device communication (optional) on the device back enables the communication
with other SIPROTEC 4 device which also support inter-device communication. The communication becomes
thus independent of the connection to th e central controller (SICAM Station Controller).
A further interface is provided for the time synchronizatio n of the internal clock via external synchronizati on
sources.
Power Supply
These described functional units are supplied by a power supply PS with the necessary power in the different
voltage levels. T ransient dips of the supply voltage, which may occur during short-circuits or interruptions in the
power supply system, are bridged by a capacitor (see also Technical Data).
Introduction
1.2 Application Scope
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1.2 Application Scope
The SIPROTEC 6MD66x High V oltage Bay Control Units are integrated components of the SICAM energy au-
tomation system. Command outputs and indication inputs are especially adapted to the requirements of high-
voltage technology.
When connecting the circuit breaker, the High Voltage Bay Control Unit can check if the synchronization con-
ditions of the two subnetworks to be combined are met (synchrocheck). This makes the use of an additio nal
external synchronization device unnecessary . The synchronization conditions can be configured conveniently
with the DIGSI operating program. The device distinguishes between synchronous and asynchronous net-
works and reacts differently in cicuit breaker close decision.
Interlocking, breaker failure protection and automatic reclosure function ensure a high switchgear availability.
Control Functions
The device is equipped with control functions which operate, close and open, switchgear via the integrated op-
erator panel, the system interface, binary inputs, and using a personal computer with DIGSI software.
The status of the primary equipment can be transmitted to the device via auxiliary contacts connected to binary
inputs. The present status (or position) of the primary equipment can be displayed on the device, and used for
interlocking or plausibility monitoring. The number of the operating equipment to be switched is limited by the
binary inputs and outputs available in the device or the binary inputs and outputs allocated for the switch posi-
tion indications. Depending on the primary equipment being controlled, one binary input (single point indication)
or two binary inputs (double point indication) may be used for this process.
The capability of switching primary equipment can be restricted by a setting associated with switching authority
(Remote or Local), and by the operating mode (interlocked/non-interlocked, with or without password request).
Processing of interlocking conditions for switching (e.g. system interlocking) can be established with the aid of
integrated, user-configurable logic functions.
Inter-relay communication through port C, abbreviated IRC, is a feature that allows the direct exchange of in-
formation, such as interlocking conditions, between SIPROTEC 4 devices.
Indications and Measured Values
The indication list provides information about conditions in the power system and the device. Measurement
quantities and values that are calculate d can be displayed locally and communicated via the serial interfaces.
Device indications can be assigned to LEDs, externally processed via output contacts, linked with user-defin-
able logic functions and/or issued via serial interfaces.
Introduction
1.2 Application Scope
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Communication
For communication with external operator and control systems and Inter-relay communication through port C,
serial interfaces are available.
Please note that the follow ing interfaces are optional or only available on certain device variants:
•Operator interface
Service interface
•System interface
A 9-pin DSUB socket on the front panel is used for local communication with a PC. By means of the SIPROTEC
4 operating software DIGSI, all operational and evaluation tasks can be executed via this user interface, such
as specifying and modifying configuration parameters and settings, configuring user-specific logic functions,
retrieving operational messages and measured values, inquiring device conditions and measured variables,
issuing control commands.
Depending on the individual orderi ng variant, additional interfaces are located on the rear side of the device.
They serve to establish an extensive communication with other digital operating, control and memory compo-
nents.
As an extension to the universal operator program DIGSI, a Web-Monitor is provided in the 6MD66x which can
be activated by a long-distance transmission link and a browser (e.g. Internet Explorer). The W EB-Monitor is
intended to be a commissioning aid and can display , for instance, parameters and measured values. Refer also
to Section 2.15.
The service interface can be operated via electrical or optical data lines (fibre optics cables) and also allows
communication via modem. For this reason, remote operation is possible via a personal computer and the
DIGSI operator software, e.g. to operate several devices via a central PC.
The system interface ensures the central communication between the device and the substation controller.
The service interface can be operated through electrical or optical data cables.
The device may have a field bus coupling with PROFIBUS FMS. The PROFIBUS FMS accordi ng to DIN 19
245 is an open communication standard with particularly wide acceptance in process control and automation
engineering, with especially hig h performance. A profile has been define d for the PROFIBUS communication
that covers all of the information types required for process control engineering. The integration of the devices
into the power automation system SICAM can also take place with this profile.
Alternatively, the device can be operated via PROFIBUS DP.
In addition, standardized protocols in accordance wit h IEC 60 870-5-103 are available for data transmission.
The integration of the devices into automation systems from other manufacturers can also take place with this
profile.
An EN-100 module allows to inte grate the devices into 100 Mbit Ethernet communica tion networks used by
process control and automation systems and running IEC 61850 protocols. In parallel to the process control
integration of the device, this interface can also be used for communication with DIGSI and for inter-relay com -
munication via GOOSE.
Optionally , you can use an additional serial interface for Inter-relay communication through port C. It takes over
communication with other SIPROTEC 4 devices, regardless if the device is connected to the control center.
Note
The Appendix contains a list of the functions which can be handled via the respective interfaces.
Introduction
1.3 Characteristics
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1.3 Characteristics
General Features
• Powerful 32-bit microprocessor system.
• Complete digital measured value processing and control, from the sampling and digitalization of the ana-
logue input quantities to the initiation of outputs for tripping or closing circuit breakers.
• Complete galvanic and reliable separation between the internal processing circuits of the device and the ex-
ternal measurement, control, and power supply circuits because of the design of the analog input transduc-
ers, binary input and output modules, and the DC/DC or AC/DC converters.
• Extensive communication possibilities with external devices using different interfaces and protocols (as de-
scribed above under "Communication").
• Complete set of functions necessary for the proper control of feeders or busbars.
• Easy device operation through an integrated operator panel or by means of a connected personal computer
running DIGSI .
• Continuous calculatio n and display of measured and metered values on the front of the device
• Constant monitoring of the measurement quantiti es, as well as continuous self-diagnostics covering the
hardware and software.
• Communication with central contro l equipment via serial interfaces is possible through the choice of data
cable, modem, or fibre optic cable, as an option.
• Optional Inter-relay communication through port C for direct communication between the devices, regard-
less of their connection to the control centre .
• Internal clock which can be synchronized via a synchronization signal (DCF 77, IRIG B via satellite receiver),
binary input or system interface.
• Sto rage of fault indications and instantaneous values for fault recording
• Commissioning aids such as connection check, status indication of all binary inputs and outputs, easy check
of system interface and influencing of information of the system interface during test operation
Synchronization Function (op tional)
• Checking of the synchronisation conditions of both subnetwo r ks.
• Differentiation between synchronous and asynchronous networks.
• Consideration of the circuit brea ker operating times with asynchronous netw orks.
• Saving of up to eight parameter sets for synchronization to be able to consider the differing properties of
circuit breakers and network conditions.
Switchgear Interlocking
• Switchgear interlocking with bay or system interlocking
• Communication using inter-relay communication (IRC)
• Easy configuration of interlocking conditions
Introduction
1.3 Characteristics
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Circuit Breaker Failure Protection (optional)
• With definite time current stages for monitoring the current flow through every pole of the circuit breaker
• Start by a trip command from the internal breaker failure protection function;
• Start by external tri p fu nctions possible
• Single-stage or two-stage
• Short dropout and overshoot times
Automatic Reclosure Function (opt io na l)
• For reclosure after 1-pole, 3-pole or 1-pole and 3-pole tripping
• Single or multiple reclosure (up to eight reclosure attempts)
• With separate action time setting for the first 4 reclose attempts, optionally without action times
• With separate dead times after 1-pole and 3-pole tripping, separate for the first four reclosure attempts
• Controlled optionally by protection pickup with separate dead times after 1-pole , 2-pole or 3-pole pickup
• Optionally with adaptive dead time, reduced dead time and dead line check
Control
• High security against incorrect switchings via system and bay related interlocking checks, including the in-
formation of neighbouring bays via inter rela y communication.
• High variance with regard to switchgear types and operating modes.
Switching authority and switc hing mode
• Keylock switches for defining the con trol authority and the control mode.
• Logging keylock-switch positions.
Measured values
• Connection of measured values in accordance with 1- or 3-phase system or Aron connection.
• Flexible measured value processing with configurable measuring packets.
Metered values
• Formation of metered values from measured values
• Acquisition of pulse metered valu es via the binary inputs
User-defined functions
• Freely programmable links between internal and external signals for the implementation of user-defined
logic functions (e.g. interlocking).
• Logic functions for Boolean and mathematical equations.
• Switching sequences and interlocks.
• Time delays and measured value set point interrogation.
Introduction
1.3 Characteristics
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Monitoring functions
• Increased reliability thanks to monitoring of internal measuring circuits, auxiliary power supply , hardware and
software.
• Monitoring of communication including the evaluation of the number of faulty transmission messages.
Inter relay communication
• Direct exchange of information between the SIPROTEC 4 devices, even without a connection to the SICAM
control centre.
• A stationwide interlocked control is also possible if the connection to the control centre or the control centre
itself is disturbed.
Web Monitor
• The Web-Monitor allows to display parameters, dat a and measured values for SIPROTEC 4 devices and a
quick view of an IRC combination. The combination data, device data, master data, combination structure
and indications of each user are visualised . Web-Monito r also allows to display synchronisation ranges, a
synchronoscope and synchronous networks. For this it uses Internet technology. The display is made by a
Web browser. A special operator program (e.g. DIGSI 4) is not necessary.
Measurement box
• The connection of two 7XV5662-7AD10 measurement boxes allows up to 16 external temperature, pressure
or any 20-mA measured values to be measured. The measurement box 7XV5662-2 AD10 or 7XV5662-
5AD10 (RTD box) each provide 6 temperature measuring inputs.
Further functions
• Indication storage for the last 200 operational indications with real-time assignment.
• Fault recording and data transfer for fault recording for a maximum time range of 30 seconds
■
Introduction
1.3 Characteristics
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Functions 2
This chapter describes the individual functions of the SIPROTEC 4 device 6MD66x. It shows the setting pos-
sibilities for each function in maximum configuration. Guidelines for establishing setting values and, where re-
quired, formulae are given.
Based on the following information, it can also be determined which of the provided functions should be used.
2.1 General Settings 26
2.2 Command Processing 37
2.3 Indication Processing 44
2.4 Measured value processing 45
2.5 Metered Value Processing 60
2.6 Threshold-Switch 66
2.7 Circuit breaker synchro nisation 68
2.8 Switchgear Interlocking 92
2.9 Circuit breaker failure protection (optional) 102
2.10 Automatic reclosure function (optional) 122
2.11 Function control 150
2.12 Inte r-relay communication through port C 159
2.13 Inter relay communication with GOOSE through Ethernet 181
2.14 Connecting external in strument transformers 196
2.15 Web Monitor 202
Functions
2.1 General Settings
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2.1 General Settings
The function parameters can be modified using the operating or service interface with a personal computer
using DIGSI. The procedure is described in detail in the SIPROTEC System Description /1/.
2.1.1 Functional scope
The High Voltage Bay Control Unit 6MD66x features functi ons which are adaptable in their scope to the pre-
vailing system conditions. Some functions (e.g. switching authority and switching mode) are available by de-
fault, other functions have to be added during configuration. You define yourself during the configuration which
functional scope the device will have.
2.1.1.1 Configuring the Functional Scope
In DIGSI, dialog box Functional scope, the functions Measuring transducer (various types) and Synchronization
(1 to 8) are configured as Enabled or Disabled.
Functions that are configured as Disabled are not processed by the 6MD66x: There are no indications, and
corresponding settings (functions, limit values) are not displayed.
Functions that are not needed can be hidden.
2.1.1.2 Setting Notes
Loading the Configuration Settings
Configuration settings can be loaded using a PC and the operating program DIGSI and transferred via the op-
erator interface on the front panel or via the rear service interface. Operation via DIGSI is described in the
SIPROTEC System Description/1/.
For changing configuration parameters in the device, password no.7 is required (for parameter set).
Without the password, the settings may be read, but cannot be modified and transmitted to the device.
Special settings
In order to detect the measured values for temperature, pressure or other 20-mA measured values, specify the
interface to which the measurement box is connected at address 190 MEASUREMENT BOX. In the 6MD66x this
is port C (service interface). You can specify the measurement box in use, the number and type of transmission
of the measurement points (RTD = Resistance Temperature Dete ctor) at address 191 MB CONNECTION. 6
RTD simplex / 6 RTD HDX when using one 7XV5662-2/5x measurement box or 8 MBS simplex / 8 MBS
HalfDplx when using one 7XV5662-7x measuremen t box or 12 RTD HDX / 16 MBS HalfDplx (with two
measurement boxes). Design examples are shown in the appendix (in the section "Connection Examples").
The information entered at address 191 must correspond to the settings at the measurement box (see section
2.14.2, side title „Measurement box settings“).
Functions
2.1 General Settings
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2.1.1.3 Settings
Addr. Parameter Setting Options Default Setting Comments
0 MU V_1 Disabled
Enabled Disabled Measurement V
0 MU I_1 Disabled
Enabled Disabled Measurement I
0 MU1P_1 Disabled
Enabled Enabled Measurement 1phase 1.packet
0 MU1P_2 Disabled
Enabled Disabled Measurement 1phase 2.packet
0 MU1P_3 Disabled
Enabled Disabled Measurement 1phase 3.packet
0 MU3P_1 Disabled
Enabled Enabled Measurement 3phase 1.packet
0 MUAron_1 Disabled
Enabled Disabled Measurement Aron 1.packet
0 Synchronizing 1 Disabled
Enabled Disabled Synchronizing Function 1
0 Synchronizing 2 Disabled
Enabled Disabled Synchronizing Function 2
0 Synchronizing 3 Disabled
Enabled Disabled Synchronizing Function 3
0 Synchronizing 4 Disabled
Enabled Disabled Synchronizing Function 4
0 Synchronizing 5 Disabled
Enabled Disabled Synchronizing Function 5
0 Synchronizing 6 Disabled
Enabled Disabled Synchronizing Function 6
0 Synchronizing 7 Disabled
Enabled Disabled Synchronizing Function 7
0 Synchronizing 8 Disabled
Enabled Disabled Synchronizing Function 8
103 Grp Chge OPTION Disabled
Enabled Disabled Setting Group Change Option
110 Trip 1pole 3pole only
1-/3pole 3pole only 1pole trip permitted
133 Auto Reclose 1 AR-cycle
2 AR-cycles
3 AR-cycles
4 AR-cycles
5 AR-cycles
6 AR-cycles
7 AR-cycles
8 AR-cycles
ADT
Disabled
Disabled Auto-Reclose Function
134 AR control mode Pickup w/ Tact
Pickup w/o Tact
Trip w/ Tact
Trip w/o Tact
Trip w/ Tact AR control mode
139 BREAKER FAILURE Disabled
Enabled Disabled Breaker Failure Protection
Functions
2.1 General Settings
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2.1.2 Power System Data 1
To function, the device requires the Rated Frequency of the network. The default preset value must only be
changed if the network of the application field has a different Rated Frequency.
2.1.2.1 Setting Notes
Rated Frequency
The Rated Frequency of the network in which the device is operating is set under the address 214. A default
value is set.
Unom SECONDARY Unom SECONDARY TMax CLOSE CMD
The other parameters, Unom SECONDARY, TMin TRIP CMD and TMax CLOSE CMD, are only used for the
automatic reclosure and the breaker failure protection function.
Temperature unit (power system data)
When using the 7XV5662-2/5x measurement box, you can set address 276 TEMP. UNIT to display either
degree Celsius or degree Fahrenheit.
190 MEASUREMENT BOX Disabled
Port C
Port D
Port E
Disabled Measurement box
191 MB CONNECTION 6 RTD simplex
6 RTD HDX
12 RTD HDX
8 MBS simplex
8 MBS HalfDplx
16 MBS HalfDplx
6 RTD simplex Measurement box Connection
Type
Addr. Parameter Setting Options Default Setting Comments
Functions
2.1 General Settings
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2.1.2.2 Settings
2.1.3 Device, General Settings
The behaviour of 6MD66x devices can be set individually with various settings.
2.1.3.1 Function Description
The devices are equipped with an illuminated LC display for displaying process and device info rmation. The
light for the display is normally off.
Illumination is controlled:
• via an operator action,
–ON, on actuating any key on the operator control panel or
–OFF, after 10 minutes if no further operator input follows.
• via the binary input „>Light on“ (if configured correspondingly),
–ON, if „>Light on“ ON or,
–OFF, after the time set under T Backlight on.
The lighting can also be switched on and off with DIGSI via the operator interface or the service interface.
Addr. Parameter Setting Options Default Setting Comments
203 Unom PRIMARY 1.0 .. 1200.0 kV 110.0 kV Rated Primary Voltage
204 Unom SECONDARY 80 .. 125 V 100 V Rated Secondary V oltage (Ph-Ph)
205 CT PRIMARY 10 .. 5000 A 100 A CT Rated Primary Current
206 CT SECONDARY 1A
5A 1A CT Rated Secondary Current
214 Rated Freq uency 50 Hz
60 Hz 50 Hz Rated Frequency
240 TMin TRIP CMD 0.02 .. 30.00 sec 0.10 sec Minimum TRIP Command Dura-
tion
241 TMax CLOSE CMD 0.01 .. 30.00 sec 0.10 sec Maximum Close Comma nd Dura-
tion
276 TEMP. UNIT Celsiu s
Fahrenheit Celsius Unit of temperature measurement
Functions
2.1 General Settings
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2.1.3.2 Indications of the device
„Device OK“
Indication: The device is ready for operation.
The life contact is switched ON and the error LED is switched OFF with this message.
Value: On
„Reset Device“
Indication: The device has performed a startup.
Special communication indication: It is announced on the PROFIBUS that the SIPROTEC-VD has started the
PD service (only the logged on partner).
Value: On
„Initial Start“
Indication: The device has performed an initi al restart.
All buffers were cleared (additional information for start-up indication).
Value: On
„Resume“
Indication: The device has performed a restart.
All buffers remained intact (additional information for start-up indication).
Value: On
Tagging command for acknowledging the LEDs of SICAM or DIGSI.
Value: On
„>Light on“
Display on/off via binary input.
Value: ON/OFF
„Chatter ON“
Central chatter suppression message.
This message indicates if the chatter suppression responded duri ng a binary message subject to the chatter
processing.
Value: ON, the chatter suppression responded for at leas t one binary message.
Value: OFF, chatter suppression did not respond for any binary message.
„Error PwrSupply“
Indication: The power supply unit is faulty.
Value: On
Functions
2.1 General Settings
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„Fail Battery“
Indication: The battery is faulty.
Value: On
„DataStop“
Data transmission blockage for indications, metered and measured values.
With data transmission blockage on, all information in the monitoring direction —of the device to the higher
control centre— is marked with the transmission blockage bit. The actual transmission blockage is performed
in the control ce nt er.
Value: ON/OFF
„>DataStop“
Predefined binary input for tagging and delete „DataStop“
Value: ON/OFF
„Test mode“
This operating mode is used for device tests during commissioning or maintenance. In test mo de, all informa-
tion in monitoring direction is marked with UBF test bit. This procedure serves to avoid that events caused by
the test mode initiate unwanted reactions (horn, derived commands and indications, etc.) in higher-level system
components (DIGSI or SICAM). This operating mode can be activated and deactivated by a tagging command
in DIGSI.
Value: ON/OFF
„HWTestMod“
Hardware test mode: DIGSI switch es ON this operating mode if the user activates the functions Set binary
input, Set output relay, Set messages, for example, in start-up mode. DIGSI switches OFF the hardware test
mode when leaving the start-up area. After the switch-off command, the "Hardware test mode OFF" message
is output and an initial device start-up is initiated after a period of 5 seconds.
Value: ON/OFF
„>Time Synch“
Input for the external minute pulse.
Value (fleeting): On
„SynchClock“
Acknowledgement of a clock synchronization.
Value (fleeting): On
„Clock SyncError“
Indication: Clock sync hronisation error.
Value: ON, the synchronizing event is missing after the parametrized tolerance time.
Value: OFF, a synchronizing event has again arrived.
Functions
2.1 General Settings
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„DayLightSavTime“
Indication: Daylight saving time switchover.
Value: ON, a time synchronisation job with summertime was detected by the date-clocktime processing.
Value: OFF, a time synchronisation job with out daylight saving time was detected.
„Settings Calc.“
Annunciation that a parametrization is current.
Value: ON, the function is reserved for parametrization.
Value: OFF, the function has been enabled again.
„Settings Check“
Message that th e de vi ce op erate s wi t h ne w parameters whic h are no t ye t con ti n uo u sl y save d (o n-l i n e param-
eterization).
Value: ON, the test has begun.
Value: OFF, the test is ended, i.e. the device is either operative again, or the new parameters have been saved
permanently, or no parameter check is current.
„Level-2 change“
The message is transmitted as ON as soon as the parameter set loaded via DIGSI was changed via an on-line
parameterization and the device operates with these new settings. Thi s indication is OFF as long as the pa-
rameter set loaded via DIGSI is not changed or is again issued as OFF, if a parameter set was completely newly
loaded and the device operates with these parameters. The information value of the message (ON/OFF) is pre-
served during an initial and a resume.
Value: ON, parameter changes online at the unit or via parametrisation command.
Value: OFF, parameter set completely reload ed.
„Local change“
Indication that the local operation setting was cancelled.
This message is reserved for DIGSI.
„Error Board 1“
Indication: The BG1 module eithe r does not exist or is defective.
The same applies to further modules BG2 to BGn.
Value: On
„Event Lost“
Fleeting indication Indication lost
„Error FMS1“
Fault in the PROFIBUS FMS connection, fibre optic cable 1 with double ring connection
Functions
2.1 General Settings
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„Error FMS2“
Fault in the PROFIBUS FMS connection, fibre optic cable 2 with double ring connection
„IRC fault“
Fault in inter relay communication as a group indication
„Bay Bus D n“
Bay bus disturbance with device 1 to n
„SysIntErr.“
Fault at system interface
2.1.3.3 Setting Notes
T Backlight on
The hold time of the display lighting can be set. After the set time has expired, the lighting is automatically
switched off.
DIGSI backplane
The setting is automatically derived from the MLFB number set (item 12, functional interface). The interface
should be bypassed only in exceptional cases.
2.1.3.4 Settings
2.1.3.5 Information List
Addr. Parameter Setting Options Default Setting Comments
401 T Backlight on 1 .. 60 min 10 min Time Backlight on
402 DIGSI backplane Disabled
Port C
Port D
Disabled Serviceport for DIGSI
407 FltDisp.LED/LCD Target on PU
Target on TRIP Target on PU Fault Display on LED / LCD
408 Spont. FltDisp. NO
YES NO Spontaneous display of flt.annun-
ciations
No. Information Type of In-
formation Comments
- Distur.CFC OUT Disturbance CFC
- Reset LED IntSP Reset LED
- >Light on SP >Back Light on
- DataStop IntSP Stop data transmission
- Test mode IntSP Test mode
Functions
2.1 General Settings
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- HWTestMod IntSP Hardware Test Mode
- SynchClock IntSP_Ev Clock Synchronization
- Error FMS1 OUT Error FMS FO 1
- Error FMS2 OUT Error FMS FO 2
1 Not configured OUT No Function configured
2 Non Existent OUT 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 of Device
67 Resume OUT Resume
68 Clock SyncError IntSP Clock Synchronization Error
69 DayLightSavTime OUT Daylight Saving Time
70 Settings Calc. OUT Setting calculation is running
71 Settings Check OUT Settings Check
72 Level-2 change OUT Level-2 change
73 Local change OUT Local setting change
110 Event Lost OUT_Ev Event lost
113 Flag Lost OUT Flag Lost
125 Chatter ON OUT Cha tt er ON
126 ProtON/OFF IntSP Protection ON/OFF (via system port)
127 AR ON/OFF IntSP Auto Reclose ON/OFF (via system port)
140 Error Sum Alarm OUT Error with a summary alarm
147 Error PwrSupply OUT Error Power Supply
177 Fail Battery OUT Failure: Battery empty
183 Error Board 1 OUT Error Board 1
184 Error Board 2 OUT Error Board 2
185 Error Board 3 OUT Error Board 3
186 Error Board 4 OUT Error Board 4
187 Error Board 5 OUT Error Board 5
188 Error Board 6 OUT Error Board 6
189 Error Board 7 OUT Error Board 7
301 Pow.Sys.Flt. OUT Power System fault
302 Faul t Event OUT Fault Event
320 Warn Mem. Data OUT Warn: Limit of Memory Data exceeded
321 W ar n Mem. Para. O UT 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
No. Information Type of In-
formation Comments
Functions
2.1 General Settings
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2.1.4 Oscillographic Fault Records
2.1.4.1 Description
The device 6MD66x has a fault recording function. The instantaneous values of measured values
iL1, iL2, iL3 and uL1, uL2, uL3,
(voltages depending on the connection) are sampled at intervals of 1 ms (for 50 Hz) and stored in a circulating
buffer (20 samples per cycle). For a fault, the dat a are stored for an adjustable period of time, but no more than
5 seconds per fault. A total of 8 faults can be saved spanning a total time of 15 s maximum. The fault record
memory is automatically updated with every new fault, so that no acknowledgment is required. The storage of
fault values can be started by pickup of a protection function, as well as via binary input and via the serial in-
terface.
The data can be retrieved via the serial interfaces by means of a personal computer and evaluated with the
operating software DIGSI and the graphic analysis software SIGRA 4. The latter graphically represents the data
recorded during the system fault and calculates additional information such as the impedance or r .m.s. values
from the measured values. A selection may be made as to whether the currents and voltages are represented
as primary or secondary values. Binary signal traces (marks) of particular events, e.g. „fault detection“, „trip-
ping“ are also represented.
Unlike in protective devices, in the case of the 6MD66x, only secondary values are correctly represented in the
fault records. The primary values should firs t be determined through the transformation ratio.
If the device has a serial system interface, the fault recording data can be passed on to a central device via this
interface. Data are evaluated by appropriate programs in the central device. Currents and voltages are referred
to their maximum values, scaled to their rated values and prepared for graphic presentation. Binary signal
traces (marks) of particular events e.g. „fault detection“, „tripping“ are also represented.
In the event of transfer to a central device, the request for data transfer can be executed automatically and can
be selected to take place after each fault detection by the protection, or only after a trip.
2.1.4.2 Setting Notes
General
Other settings pertaining to fault recording (waveform capture) are found in the submenu Fault recordin g of
the PARAMETER menu. Waveform capture makes a distinction between the trigger instant for an oscillograph-
ic record and the criterion to save the record. Normally th e tri g ge r in stant is the device pickup, i.e. the pickup
of an arbitrary protective function is assigned the time. The criterion for saving may be both the device pickup
(Save w. Pickup) or the device trip (Save w. TRIP). A trip command issued by the device can also be
used as trigge r in stant (Start w. TRIP); in this case it is also the saving criterion.
Recording of an oscillog raphic fault record starts with the pickup by a protective function and ends with the
dropout of the last pickup of a protective function. Usually this is also the extent of a fault recording (WAVEFORM
DATA = Fault event). If automatic reclosure is implemented, the entire system disturbance — possibly with
several reclose attempts — up to the ultimate fault clearance can be stored (WAVEFORM DATA =
Pow.Sys.Flt.). This facilitates the representation of the entire system fault history, but also consumes
storage capacity during the auto-reclosure dead time(s). This setting can only be altered with DIGSI under Ad-
ditional Settings.
The actual storage time begins at the pre-fault time PRE. TRIG. TIME ahead of the trigger instant, and ends
at the post-fault time POST REC. TIME) after the storage criterion has reset. The maximum recording duration
to each fault is entered in MAX. LENGTH.
Functions
2.1 General Settings
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The fault recording can also be triggered via a binary input, via the keypad on the front of the device or with a
PC via the operator or service interface. The storage is then dynamically triggered. The length of a record for
these special triggers is determined by parameter BinIn CAPT.TIME (upper bound is MAX. LENGTH). Pre-
fault and post-fault times will be included. If the binary input time is set for ∞, then the length of the record equals
the time that the binary input is activated (static), or tMAX. LENGTH, whichever is shorter.
2.1.4.3 Settings
2.1.4.4 Information List
2.1.5 Protocol
When detecting an interruption in communication between a SIPROTEC 4 device and the Substation Control-
ler , marking „SysIntErr.“ (fault at system interface) is set to ON in the SIPROTEC 4 device. The message
is registered in the event buffer . Following, it can be processed in CFC and allocated to LEDs and output relays.
The state of the outputs or switching elements has not changed compared to the state before interruption of
the communication. Local switching operations, however, are still possible.
After communication has been reestablished the message is set to OFF and data are taken from the telegrams
again received by the PROFIBUS-DP Master.
2.1.5.1 Information List
Addr. Parameter Setting Options Default Setting Comments
901 WAVEFORMTRIGGE
RSave w. Pickup
Save w. TRIP
Start w. TRIP
Save w. Pickup Waveform Capture
902 WAVEFORM DATA Fault event
Pow.Sys.Flt. Fault event Scope of Waveform Data
903 MAX. LENGTH 0.30 .. 5.00 sec 2.00 sec Max. length of a Waveform
Capture Record
904 PRE. TRIG. TIME 0.05 .. 0.50 sec 0.25 se c Captured Waveform Prior to
Trigger
905 POST REC. TIME 0.05 .. 0.50 sec 0.10 sec Captured Waveform after Event
906 BinIn CAPT.TIME 0.10 .. 5.00 sec; ∞0.50 sec Capture Time via Bin ary Input
No. Information Type of In-
formation Comments
- FltRecSta IntSP Fault Recording Start
4 >Trig.Wave.Cap. SP >Trigger Waveform Capture
30053 Fault rec. run. OUT Fault recording is running
No. Information Type of In-
formation Comments
- SysIntErr. IntSP Error Systeminterface
Functions
2.2 Command Processing
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2.2 Command Processing
The SIPROTEC 6MD66x includes a co mmand processing function for initiating switching operations in the
system.
Control action can originate from four command sources:
• Local operation using the keypad on the local user interface of the device
• Operation using DIGSI (also possible through a WEB Server via a long-distance data transmission link)
• Remote operation via network control centre or substation controller (e.g. SICAM),
• Automatic functions (e.g., using binary in puts or CFC)
Switchgear with single and multiple busbars are supported. The number of switchgear devices to be controlled
is limited only by the number of binary inputs and outputs present. An additional feature is the exchange of in-
formation (e.g. bay interlocking) through IRC. High security aga inst inadvertent device operations can be
ensured if interlocking checks are enabled. A standard set of optional interlocking checks is provided for each
command issued to circuit breakers / switchgear .
2.2.1 General
The source of command are recorded in the event log at the moment of the command output.
2.2.1.1 Function Description
The followin g so urce of command are possib l e:
Cause text Command source
SC = Local Local control using the keypad on the local user interface of the device
SC = SICAM Local control of central device (e.g. SICAM)
SC = Remote Remote control of central device
SC = Auto Automatic command of central device (e.g. SICAM CFC)
SC = Auto device Automatic command of device
SC = DIGSI Control using DIGSI
Functions
2.2 Command Processing
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2.2.2 Control Device
Devices with integrated or detached operator panel can control switchgear via the operator panel of the device.
Switchgear can be controlled via the PC operator interface and via the serial port with a link to the substation
control equipment.
Prerequisites
The number of switchgear devices to be controlled is limited by the
– Binary inputs present
– Binary outputs present
2.2.2.1 Function Description
Operation using the SIPROTEC 4 Device
Commands can be initiated using the keypad on the local user interface of the relay. For this purpose, there
are three independent keys located be low the graphic display. The key CTRL causes the control display to
appear in the LCD. Control of switching de vices is possible within this displ ay, or from the Control context
menu, since the two control keys OPEN and CLOSE only become active as long as the control display is
present. The LCD must be changed back to the default display for other, non-control, operational mode s.
The navigation keys ▲, ▼, W, X are used to select the desired device in the Control Display. The I key or the
O key is then pressed to convey the intended control command.
The switch icon in the control picture will then fl ash in the specified position. You are prompted to confirm the
switching action by pressing the ENTER key in the lower section of the display. A safety promps follows. The
actual switching operation is initiated after you have confirmed the prompt by pressing the ENTER button. If the
confirmation does not occur within one minute, the flashing of the target position will return to the actual status.
You can cancel the process at anytime either before the command release or during switch selection by press-
ing the ESC button.
During normal processing, the control display indicates the new actual status after the control command was
executed and the message „command end“ at the lower display edge. The indication „FB reached“ is dis-
played briefly before the final indication in the case of switching commands with a feedback.
If the selected control command is not accepted, because an interlocking condition is not met, then an error
message appears in the display . The message indicates why the command was not accepted (see also SIPRO-
TEC 4 System Description /1/). This message must be acknowledged with Enter before any further control
commands can be issued.
Operation using the DIGSI
Control devices can be controlled via the operator control interface by means of the DIGSI operating program
installed on a PC.
The procedure to do so is described in the SIPROTEC System Description /1/ (Control of Switchgear).
Operation using the System Interface
Control of switching devices can be performed via the serial system interface and a connection to the substa-
tion control and protection system. For this the required peripherals (connection...) must physically exist both
in the device and in the system. Also, specific settings to the serial interface must be made in the device (see
SIPROTEC System Description /1/).
Functions
2.2 Command Processing
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Note
The switching commands (indications) listed in the following Information List are default examples. As they are
only examples they may be deleted or overwritten by the user.
2.2.2.2 Information List
No. Information Type of In-
formation Comments
- Q0 CF_D2 circuit breaker Q0
- Q0 DP circuit breaker Q0
- Q1 CF_D2 bus disconnector Q1
- Q1 DP bus disconnector Q1
- Q2 CF_D2 bus disconnector Q2
- Q2 DP bus disconnector Q2
- Q8 CF_D2 earthing isolator Q8
- Q8 DP earthing isolator Q8
- Q9 CF_D2 feeder disconnector Q9
- Q9 DP feeder disconnector Q9
- ReleaseQ0 IntSP Release circuit breaker Q0
- ReleaseQ1 IntSP Release bus disconnector Q1
- ReleaseQ2 IntSP Release bus disconnector Q2
- ReleaseQ8 IntSP Release earthing isolator Q8
- ReleaseQ9 IntSP Release feeder disconnector Q9
31000 Q0 OpCnt= VI Q0 operationcounter=
31001 Q1 OpCnt= VI Q1 operationcounter=
31002 Q2 OpCnt= VI Q2 operationcounter=
31008 Q8 OpCnt= VI Q8 operationcounter=
31009 Q9 OpCnt= VI Q9 operationcounter=
Functions
2.2 Command Processing
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2.2.3 Control Authorization
In conjunction with the power system control there are several command types that must be considered.
Applications
• Operation of circuit breakers, disconnectors an d ground electrodes
• Raising and lowering transformer LTCs
• Control of Petersen coils
• „Manually overriding/updating“ information of proces s-dependent objects
• „Setting“ information of internal objects
• Setting and resetting internal buffers or data stocks
• Adding/removing additional information
Prerequisites
For more detailed information, please refer to the SIPROTEC System Description /1/.
2.2.3.1 Description
Commands to the System
These are all commands that are directly output to the switchgear to chang e their process state:
• Switching commands for the control of circuit breakers (asynchronous), disconnectors and ground elec-
trodes,
• Step Commands, e.g. raising and lowering transformer LTCs
• Setpoint commands with configurable time settings, e.g. to control Petersen coils
Device-internal Commands
These commands do not directly operate command outputs. They serve for initiating internal functions, com-
municating the detection of status changes to the device or for acknowledging them.
• Manual override commands for „manual update“ of information on process-dependent objects such as indi-
cations and switching states, e.g. if the communication with the process is interrupted. Manually overridden
objects are flagged as such in the information status and can be displayed accordingly.
• Tagging commands (for „setting“) the information value of internal objects, such as switching authority (re-
mote/local), parameter changeovers, data transmission blocks and counter value deletion/presetting.
• Acknowledgment and resetting commands for setting and resetting internal buffers or data stocks.
• Information status command to set/delete the addi tional information „information status“ to an information
value of a process object such as
– Acquisition bl ocking
– Output blocking.
Sequence in the command path
Security mechanisms in the command path ensure that a switch command can be carried out only if the test of
previously established criteria has been successfully completed. In addi tion to general fixed prescribed tests,
for each resource separately further interlocks can be configured. The actual execution of the command job
also is then monitored. The entire sequence of a command is described briefly in the following.
Functions
2.2 Command Processing
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Checking a Command Job
Please observe the following:
• Command entry, e.g. using the keypad on the local user interface of the device
– Check password ⇒ access rights
– Check switching mode (interlocking activated/deactivated) ⇒ selection of deactivated interlocking status.
• User configurable command checks
– Switching authority
– Device position check (set vs. actual comparison)
– Interlocking, Zone Controlled (l ogic using CFC or IRC)
– Interlocking, System Interlocking (centrally, using SICAM or IRC)
– Double Operation Locking (interlocking against parallel switching operations)
– Protection blocking (blocking of switching operations by protective fu n cti on s in SIPROTEC4 protection
devices)
• Fixed command checks
– Internal process time (software watch dog which checks the time for processing the control action
between initiation of th e control and final close of the relay contact)
– Configuration in Process (if configuration is in process, commands are denied or delayed)
– Equipment enabled as output (if an piece of equipment was configured, but not configured to a binary
input, the command is denied)
– Output Blocking (if output blocking has been programmed for the circuit breaker, and is active at the
moment the command is processed, then the command is denied)
– Module hardware malfunction
– Command in Progress (only one command can be processed at a time for one piece of equipment,
object-related Double Operation Block)
– 1–of–n check (for multiple allocations such as common contact relays it is checked if a command proce-
dure was already initiated for the output relays concerned).
Command Execution Monitoring
The following is monitored:
• Interruption of a command because of a Cancel Command
• Running Time Monitor (feedback monitoring time)
Additional Information
Refer to Section 2.8 Switchgea r Interlocking for additional information on command processing and for an in-
formation overview.
Functions
2.2 Command Processing
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2.2.3.2 Information List
2.2.4 Process Data
During the processing of the commands, independent of the further me ssage routing and processing,
command and process feedback information are sent to the message processing centre. These messages
contain information on the cause. With the corresponding allocation (configuration) these messages are
entered in the event list, thus serving as a report.
The SIPROTEC 4 System Description /1/ contains a list of possible operator responses and their meaning as
well as the command types required to trip and close switching devices or to raise and lower transformer taps.
Applications
• Indications and operator responses related to switching operations
Prerequisites
The SIPROTEC System Description /1/ contains a list of possible operator responses and their meaning as
well as the command types required to trip and close switching devices or to raise and lower transformer taps.
2.2.4.1 Description
Acknowledgin g commands to the integrated control
All indications with the source of command LOCAL are converted into a corresponding response and shown in
the display of the device.
Acknowledging commands to local / remote / DIGSI
The acknowledgement of messages with source of command Local/ Remote/DIGSI are sent back to the initi-
ating point independent of the routing (configuratio n on the serial digital interface).
Hence, the command is not acknowledged by an operator response as for the local command but via the
normal command and feedback logging.
No. Information Type of In-
formation Comments
- KeySwitch1 DP Key Switch 1 (Local/Remote)
- Cntrl Auth IntSP Control Authority
- KeySwitch2 DP Key Switch 2 (Interlocking OFF/ON)
- ModeLOCAL I ntSP Controlmode LOCAL
- ModeREMOTE IntSP Controlmode REMOTE
Functions
2.2 Command Processing
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Feedback monito ring
The command processing performs a time monitoring for all command processes with feedback. A monitoring
time is started parallel to the command (monitoring of the command execution time) to verify whether the
switching device reaches the desired end position during this time. The monitoring time is stopped upon recep-
tion of the feedback indication. If there is no feedback indication, the message "Timeout command monitoring
time" is displayed and the process is terminated.
In the operational log, the commands and their feedback are also logged. Normally the execution of a command
is terminated as soon as the feedback information (FB+) of the relevant switchgear arrives or, in case of com-
mands without process feedback information, the command output resets and a message is output.
The "plus" sign appearing in a feedback information confirms that the command was successful. The command
was as expected, in other words positive. The "minus" is a negative confirmation and means that the command
was not executed as expected.
Functions
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2.3 Indication Processing
Indication processing in High Voltage Bay Control Unit 6MD66x is provided to assure a save and instantaneous
transmission of information to the contro l centre. This is done by giving priority to feedback information from
commands before measured values and other indications. Thus the user quickly gets an overview on the
current status of the station even when data exchange is very high.
2.3.1 Description
Indication processing comprises the following
• Communication with the Substation Controller Utilizing th e Priorization Principle
• Transmission of data to the bay devices connected via inter-relay communication
• Creation of group alarms in accordance with the configura ti on in CFC
• Display of the event list of the device, memorization of 200 indications
• Display of the signalizing LEDs (i n accordance with the configuration carried out)
LED Display and Binary Outputs (output relays)
Important events and conditions are displayed, using LEDs on the front panel of the relay. The device further-
more has output relays for remote indication. All LEDs and binary outputs indicating specific indications can be
freely configured. The relay is delivered with a default setting. The Appendix of this manual deals in detail with
the delivery status and the allocation options.
The output relays and the LEDs may be operated in a latched or unlatched mode (each may be individually set).
The latched conditions are protected against loss of the auxiliary voltage. They are reset
• on site by pressing the LED key on the relay,
• Remotely using a binary input configured for that purpose,
• Using one of the serial interfaces.
Condition indications should not be latched. Also, they cannot be reset until the criterion to be reported is rem-
edied. This applies to indications from monitoring functions or similar.
A green LED displays operational readiness ("RUN"), and cannot be reset. It goes out if the self-check feature
of the microprocessor recognizes an abnormal occurrence, or if the auxiliary voltage fails.
When auxiliary voltage is present, but the relay has an internal malfunction, then the red LED ("ERROR") lights
up and the processor blocks the relay.
Further information on the functionality, allocation of indications, on how to read out information via DIGSI and
the operator panel of the device etc. can be found in the SIPROTEC System description /1/.
Functions
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2.4 Measured value processing
Measured value processing of the SIPROTEC device 6MD66x provides functions for recording, calculating and
displaying varying measurement quantities. For further information please also refer to the SIPROTEC System
Description /1/.
In addition, the device contains the so-called measuring transducer blocks, which form various operands from
the current and voltage input quantities.
2.4.1 Measurement, Transducer Inputs 20 mA
The user-defined measured values are compiled in a parameter group. These measured values are created
via DIGSI CFC or arrive as r.m.s. values via inter-relay communication.
Applications
• Limit values are used to indicate when a measured value recorded as the operational measured value has
exceeded the upper or lower limits.
2.4.1.1 Description
The two measuring transducer inputs (±20 mA) contained in the device are already specified in the default set-
ting. These measuring transducer inputs supply non-linearized values which can be converted via DIGSI CFC
to measured values such as pressure or temperature.
Derived measured values are inserted from the information catalog.
Information on configuration of the user-defined measured values can be found in SIPROTEC System Descrip-
tion /1/.
2.4.1.2 Information List
No. Information Type of In-
formation Comments
996 Td1= MV Transducer 1
997 Td2= MV Transducer 2
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2.4.2 General Information on Transducer Blocks
The measuring transducer blocks form various operands from th e voltage and current inputs.
2.4.2.1 Functional Description
The measuring transducer function is explained via the following function blocks:
• Measuring transducer U (MU U)
• Measuring transducer I (MU I)
• 1-phase measuring transducer (MT1P)
• 3-phase measuring transducer (MT3P)
• Measuring transducer Aron (MUAro n)
The individual measuring transducer blocks must be activated in the functional scope of the device. They will
then appear in the DIGSI routing matrix with their input channels and output quantities. They are routed to
current and voltage channels of the device. Y ou can route the output quantities on different targets, e.g. system
interface, CFC or display.
A functional description of the individual measuring transducer blocks and a list of the accompanying parame-
ters and information can be found in the following chapters.
Table 2-1 Connection examples for a rated transformer voltage Vn sec onda ry from 100 V
Connection variants Input voltages
Secondary
Functions Parameter
Transformer Vn sec
Comments
Star co nnection 3 x VfeederPh-N = 57.7 V
1 x VPh-N = 57.7 V Measuring transd ucer
3-phase 100 V for feeder operational
measurements
(see Figure A-9)
Measuring transd ucer
1-phase 100 V for reference operational
measurements
(see Figure A-8)
SYNC function 1 to
SYNC function 5 100 V1) for synchronization func-
tion (see Figure A-11)
Ufeeder delta connec-
tion
Uref delta connec ti on
3 x VfeederPh-N = 57 .7
V
1 x VPh-Ph = 100 V
Measuring transd ucer
3-phase 100 V for feeder operational
measurements
(see Figure A-9)
Measuring transd ucer
1-phase 173.2 V2) for reference operational
measurements
(see Figure A-8)
SYNC function 6 to
SYNC function 8 100 V for synchronization func-
tion (see Figure A-12)
Aron connection 2 x VfeederPh-Ph = 100 V
1 x VPh-Ph = 100 V Measuring tran sducer
Aron 173.2 V2) for feeder operational
measurements
(see Figure A-10)
Measuring transd ucer
1-phase 173.2 V2) for reference operational
measurements
(see Figure A-8)
SYNC function 6 to
SYNC function 8 100 V for synchronization func-
tion (see Figure A-10)
Functions
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1) In the SYNC function the parameter T ransformer Unom secondary is equivalent to the secondary input voltage.
2) Inside the measuring transducer packages, the parameter Transformer Unom secondary is equivalent to √3
times the secondary input voltage.
The secondary transformer voltages specified in the above table must be parameterized if the conversion factor
set for the phase-to-phase voltages is the nominal system volt age UN, and the conversion factor for the individ-
ual phase voltages is the voltage UN/√3. The conversion factor can be set in the DIGSI matrix under Object
properties - Measured value description of a measured value.
The parameter settings for the secondary transformer voltages and the conversion factors are mutually depen-
dent. This will be briefly exemplified by a wye connection:
The rated voltage of the system is 110 k V; 110 kV/100 V transformers are used. In the measuring transducer
packages, the secondary voltage is set to 100 V. And for the voltages the conversion factors are set to 110 kV
for the phase-to-phase voltages and 63.5085 kV for the phase voltages. In the circuit breaker synchronization
function, 100 V can be set for the secondary voltage and 110 kV as conversion factor (both values too large by
factor √3) or the phase-element values can be set to 57.735 V for the secondary voltage and 63.5085 kV for
the conversion factor. Both versions ensure the correct functi oning of the synchronization function. You must
observe the definition of the lower and upper voltage threshold that must be based on the actual secon dary
voltage (57.7 V).
Star connection,
neutral earthed power
supply
3 x VfeederPh-N = 100 V
1 x VPh-N = 100 V Measuring transducer
3-phase 173.2 V2) for feeder operational
measurements (see
Figure A-9)
Measuring transducer
1-phase 173.2 V2) for reference operational
measurements (see
Figure A-8)
SYNC function 1 to
SYNC function 5 100 V for synchronization func-
tion (see Figure A-11)
Connection variants Input voltages
Secondary
Functions Parameter
Transformer Vn sec
Comments
Functions
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2.4.3 Parameterizing Transducer Blocks
Configuration is to be performed in the High Voltage Bay Control Unit in each individual case. The device con-
tains pre-defined measuring transducer blocks which can be activated individually.
2.4.3.1 Configuring the Measuring Transducer
The configuration of measured values is fundamentally different from the configuration of other SIPROTEC 4
devices. It is explained with an example using the function block Measuring transducer 3-phase .
Selecting the Functional Scope
First select the measuring transducer blocks from the DIGSI Functional scope dialog box which are to be con-
tained in the functional scope of the device.
For this purpose, open the device and click Functional scope in the function sele cti on.
Select the available entry on the Measurement 3phase 1.packet line in the Scope column and confirm with
OK. The measurement transducer block is activated.
Figure 2-1 Functional scope dialog box
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Parameterising
Click the Measuring transducer object under Parameters in the tree view of DIGSI. The available measuring
transducer blocks are listed in the list box.
Open Measurement 3phase 1.packet via the context menu and set the values of parameters Secondary
Voltage Nominal Value (0.00 V to 200.0 V) and Secondary Current Nominal Value (0.00 A to 5.00 A) de-
pending on your requirements.
You will find more information on this in the setting hint se ctions.
Figure 2-2 Dialog box for setting the paramete rs
Functions
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2.4.3.2 Allocating a Measuring Transducer
Following configuration, the inpu ts and outputs of the activated measuring transfo rme r block in the allocation
matrix of DIGSI are interconnected and the properties of the individual measured values, such as transmission
threshold, are configured and interconnection in the CFC is performed.
Allocating Measured Value Channels
Open the allocation matrix of the device and select Only measured and metered values as the information
type. The MU3P_1 group is displayed.
Allocate the measured value channels Mvchn to the voltage/current inputs as the source.
Allocating Me asured Values
Allocate the calculated measured values to a destination, e.g. to the system interface, the inter-relay com-
munication, the CFC or the display.
Configuring Measured Valu es
Configure the propertie s of the measured values.
In the Information item, No. column of the allocation matrix, right-click the information item whose properties
you would like to configure and ope n the Object properties dialog box via the Properties... context menu.
Select the Measured value description tab and make the settings.
The Measured value description tab is not relevant for the information items MP1_PHI (phase angle),
MP1_WLF (active power factor) and MP1_BLF (reac tive power factor) and therefore not available.
Figure 2-3 Object properties dialog box, Measured value description tab
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Select the Transmissio n thr eshold tab and make the settings .
•Use central thre sh ol d (10%)
Select this checkbox to use the factory-preset threshold value of 10%. This de-activates all the other input
and output options in this tab.
•Parameterized threshold
Enter a value between 0 and 2000 in this spin box. The set value multiplied by 0.1% results in the threshold
value. This value is used without any further conditions, provided that neither the Central threshold check-
box, nor a defined switching object, has been selected.
Figure 2-4 Object properties dialog box, Transmission threshold tab
Configure the object prop erties of the phase angle 3P1_PHI.
Figure 2-5 Object properties dialog box, Transmission threshold tab
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Allocate the information item 3P1_PHI to C (CFC) as the destination and then link this in the corresp onding
CFC chart.
Figure 2-6 Example, 3P1_PHI link in CFC
Configure the object properties of the block (e.g. LOWER_SETPOINT). For this purpose, right-click the Limit
input of the block and select Object prop erties from the context menu.
Observe the working range of -180° to +180°; the value 100 (%) corresponds to 360°.
Figure 2-7 Example, properties of the LOWER_SETPOINT block
The set value 12.5 corresponds to an angle of 45°.
Functions
2.4 Measured value processing
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2.4.4 Measurement U
This packet serves to measure an individual voltage. The function provides the r .m.s. value of the fundamental
component.
2.4.4.1 Description
The frequency of the voltage is determined from the input signal. If the secondary input voltage on the device
falls below 10 Veff, the frequency is marked as invalid. The overflow occurs when the secondary input voltage
on the device exceeds 120 Veff. The frequency continues being valid. The nominal freq uency value is taken
from P.System Data 1.
Routing of the measurement input to the respective measured value channel Voltage and the routing of the
measuring results is performed with DIGSI.
Speci fications for secondary transfor mer voltage are made in the properties dialog box of MU U_1.
Information on allocation can be obtained from the SIPROTEC System Description/1/.
2.4.4.2 Setting Notes
SecVoltgNomVal
The secondary factory-preset nominal transformer voltage can be set in the predefined range.
2.4.4.3 Settings
2.4.4.4 Information List
Addr. Parameter Setting Options Default Setting Comments
0 SecVoltgNomVal 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
No. Information Type of In-
formation Comments
151.0002 U MV Voltage U
151.0021 f MV frequency
151.0022 Input U/I MC Voltage or Current Input U/I
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2.4.5 Measurement I
This packet serves to measure an individual current. The function provides the r .m.s. value of the fundamental
component.
2.4.5.1 Functional Description
The frequency of the current is determined from the input signal. If it falls below 10% of the rated value, the
frequency is marked as invalid. The rated value of the frequency is taken from P.System Data 1.
Routing of the measurement input to the respective measured value channel Current and the routing of the
measuring results is performed with DIGSI.
Specifications for secondary transformer current are ma de in the properties dialog box of MU I_1.
Information on allocation ca n be ob tained from the SIPROTEC System Description /1/.
2.4.5.2 Setting Notes
SecCurrNomVal
The secondary factory-preset nominal transformer current can be set in the predefined range.
2.4.5.3 Settings
2.4.5.4 Information List
Addr. Parameter Setting Options Default Setting Comments
0 SecCurrNomVal 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal
Value
No. Information Type of In-
formation Comments
151.0010 I MV Current I
151.0021 f MV frequency
151.0023 MwCh_I MC Current Input I
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2.4.6 Measurement 1phase
This packet serves to perform a monophase measurement (current and voltage). The measuring results of
the phase current and the phase voltage are r .m.s. values of the corresponding fundamental component.
2.4.6.1 Description
The phase current is set to the current input of the measuring transducer, whereas the phase voltage is set to
the voltage input.
The r.m.s. values calculated from these two input signals, the active power, the reactive power, the appar-
ent power, the cos Φ, the sin Φ and Φ the linked sizes and frequency calculated from the voltage (see infor-
mation overview) are then present at the measuring transducer ou tput.
The frequency is determined from the applied phase voltage. If the secondary input voltage on the device falls
below 10 Veff, the frequency is marked as invalid. The overflow occurs when the secondary input voltage on
the device exceeds 120 Veff. The rated value of the frequency is taken from Power System Data 1.
Routing of the measurement inputs to the respective measured value channels Phase current and Phase
voltage and the routing of the measuring results is performed with DIGSI.
S pecifications for secondary transformer current and secondary transformer voltage are made in the properties
dialog box of MU1P_1.
Information on allocation can be obtained from the SIPROTEC System Description /1/.
2.4.6.2 Setting Notes
SecVoltgNomVal
The secondary factory-preset nominal transformer voltage can be set in the predefined range.
SecCurrNomVal
The secondary factory-preset nominal transformer current can be set in the predefined range.
2.4.6.3 Settings
2.4.6.4 Information List
Addr. Parameter Setting Options Default Setting Comments
0 SecVoltgNomVal 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
0 SecCurrNomVal 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal
Value
No. Information Type of In-
formation Comments
152.0002 1P1_U MV 1P1 Voltage U
152.0010 1P1_I MV 1P1 Current I
152.0015 1P1_P MV 1P1 Active Power P
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2.4.7 Measurement 3phase
This packet serves to perform a 3-phase measurement (current and voltage). The measuring results of the
phase currents, phase voltages, phase-to-phase voltages, zero sequence current and zero sequence voltage
are RMS values of the corresponding fundamental compound.
2.4.7.1 Description
The following phase currents are applied at the current inputs of the measuring transducer: IL1, IL2 and IL3, as
were the voltages UL1, UL2 and UL3.
The r.m.s values of phase currents, phase voltages, phase-to-phase voltages, zero sequence current
calculated from these six input signals, and the zero sequence voltage, active power, reactive power, ap-
parent power, cos Φ, sin Φ and Φ of the linked magnitudes and frequency calculated from the voltage UL1
(see Information overview table) are then applied at the measuring transducer output.
The frequency is determined from the applied phase voltage UL1. If the secondary input voltage on the device
falls below 10 Veff, the frequency is determined from the phase voltage UL2 or UL3. If all three voltages are too
low , the rated frequency is used as frequency . In this case, the combined variables and the frequency itself are
marked invalid. The phase-to-phase voltages and the zero variables start to fluctuate depending on the devia-
tion from the rated frequency. The overflow occurs when the secondary input voltage on the device exceeds
120 Veff. The rated value of the frequency is taken from Power System Data 1.
Routing of the measurement inputs to the respective measured value channels Phase currents and Phase volt-
ages and the routing of the measuring results is performed with DIGSI. The direction of rotation can be changed
by exchanging the phases. Enter the display factors for the primary values for each required output when
routing the re sults. In this cont ext, it must be observed that the phase-to-phase value is indicated for the phase-
earth voltages if the phase-to-phase voltage (nominal voltage) was set as primary value.
S pecifications for secondary transformer current and secondary transformer voltage are made in the properties
dialog box of MU3P_1. The phase-to-phase voltage is used as the value for the secondary transformer voltage.
2.4.7.2 Setting Notes
SecVoltgNomVal
The secondary factory-preset nominal transformer voltage can be set in the predefined range.
SecCurrNomVal
The secondary factory-preset nominal transformer current can be set in the predefined range.
152.0016 1P1_Q MV 1P1 Reactive Power Q
152.0017 1P1_S MV 1P1 Apparent Power S
152.0018 1P1_ϕMV 1P1 Phase Angle Phi
152.0019 1P1_cosϕMV 1P1 Active Power Factor Cosine Phi
152.0020 1P1_sinϕMV 1P1 Reactive Power Factor Sine Phi
152.0021 1P1_f MV 1P1 Frequency of U
152.0022 1P1Input_U MC 1P1 Voltage Input U
152.0023 1P1Input_I MC 1P1 Current Input I
No. Information Type of In-
formation Comments
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2.4.7.3 Settings
2.4.7.4 Information List
Addr. Parameter Setting Options Default Setting Comments
0 SecVoltgNomVal 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
0 SecCurrNomVal 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal
Value
No. Information Type of In-
formation Comments
153.0003 3P1_U0 MV 3P1 Zero Sequence Voltage U0
153.0004 3P1_U1 MV 3P1 Phase to Earth Voltage U1
153.0005 3P1_U2 MV 3P1 Phase to Earth Voltage U2
153.0006 3P1_U3 MV 3P1 Phase to Earth Voltage U3
153.0007 3P1_U12 MV 3P1 Phase to Phase Voltage U12
153.0008 3P1_U23 MV 3P1 Phase to Phase Voltage U23
153.0009 3P1_U31 MV 3P1 Phase to Phase Voltage U31
153.0011 3P1_I0 MV 3P1 Zero Sequence Curren t I0
153.0012 3P1_I1 MV 3P1 Phase Current I1
153.0013 3P1_I2 MV 3P1 Phase Current I2
153.0014 3P1_I3 MV 3P1 Phase Current I3
153.0015 3P1_P MV 3P1 Active Power Three Phase
153.0016 3P1_Q MV 3P1 Reactive Power Three Phase
153.0017 3P1_S MV 3P1 Apparent Power Three Phase
153.0018 3P1_ϕMV 3P1 Phase Angle Three Phase
153.0019 3P1_cosϕMV 3P1 Active Power Factor Three Phase
153.0020 3P1_sinϕMV 3P1 Rea c tive Power Factor Three Phase
153.0021 3P1_f MV 3P1 Frequency
153.0024 3P1InputU1 MC 3P1 Voltage Input U1
153.0025 3P1InputU2 MC 3P1 Voltage Input U2
153.0026 3P1InputU3 MC 3P1 Voltage Input U3
153.0027 3P1InputI1 MC 3P1 Current Input I1
153.0028 3P1InputI2 MC 3P1 Current Input I2
153.0029 3P1InputI3 MC 3P1 Current Input I3
153.0098 3P1_3U0 MV 3P1 Zero Sequence Vo ltage 3U0
153.0099 3P1_3I0 MV 3P1 Zero Sequence Current 3I0
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2.4.8 Measurement Aron
The ARON measuring circuit enables a complete calculation of a 3-phase system based on merely two
voltage transformers and two current transformers. The measurement results of the phase currents, phase volt-
ages, phase-to-phase voltages, zero current and zero values are the rms value of the respective fundamental
component (see figure A-10).
2.4.8.1 Description
T wo phase currents (e.g. IL2 and IL3) and two phase-to-phase voltages (e.g. UL1L2 and UL1L3) are connected
to the measuring transducer inputs.
Based on these four input signals the measuring transducer output delivers the rms value of the phase cur-
rents, phase volt ages, phase-to-phase volt ages, zero current and zero voltage and the active power, re-
active power, apparent power, cos Φ, sinΦ and Φ of the linked quantities and the frequency calculated from
the voltage UL1L2 (see the Information List).
The frequency is determined from the applied voltage UL1L2. If the secondary input voltage at the device drops
below 10 Veff, the frequency will be calculated from the voltage UL1L3. If both voltages are too small, the nominal
frequency is used. The linked quantities and the frequency itself are marked as invalid in this case. The phase-
to-phase voltages and the zero quantities start to vary depending on the deviation from the nominal frequency .
The nominal value of the frequency is taken from the Power System Data 1.
Routing of the measurement inputs to the respective measured value channels Currents and V oltages and the
routing of the measuring results is performed with DIGSI. Enter the display factors for the primary values for
each required output when routing the results.
2.4.8.2 Setting Notes
SecVoltgNomVal
The secondary factory-preset nominal transformer voltage can be set in the predefined range.
SecCurrNomVal
The secondary factory-preset nominal transformer current can be set in the predefined range.
2.4.8.3 Settings
Addr. Parameter Setting Options Default Setting Comments
0 SecVoltgNomVal 0.00 .. 200.00 V; < > 0 100.00 V Secondary V oltage Nominal V alue
0 SecCurrNomVal 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal
Value
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2.4.8.4 Information List
No. Information Type of In-
formation Comments
154.0007 A1_U12 MV A1 Phase to Phase Voltage U12
154.0009 A1_U13 MV A1 Phase to Phase Voltage U13
154.0013 A1_I2 MV A1 Phase Current I2
154.0014 A1_I3 MV A1 Phase Current I3
154.0015 A1_P MV A1 Active Power P
154.0016 A1_Q MV A1 Reactive Power Q
154.0017 A1_S MV A1 Apparent Power S
154.0018 A1_ϕMV A1 Phase Angle Phi
154.0019 A1_cosϕMV A1 Active Power Factor Cosine Phi
154.0020 A1_sinϕMV A1 Reactive Powe r Factor Sine Phi
154.0021 A1_f MV A1 Frequency
154.0024 A1Input_U1 MC A1 Voltage Input U1
154.0025 A1Input_U2 MC A1 Voltage Input U2
154.0027 A1Input_I1 MC A1 Current Input I1
154.0028 A1Input_I2 MC A1 Voltage Input I2
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2.5 Metered Value Processing
The device can add up counter pulses of an external counter recorded via a binary input. Additionally, the
device can calculate energy values from measured values.
2.5.1 Description
Operation of pulse metered valu e
The High Voltage Bay Control Unit 6MD66x forms the metered value as a sum of the externally generated
counter pulses of a power meter . The pulses are read in via a binary input. The metered value receives a unit
based on the following table. It has the same precision as the external counter and can also be an adjusted
metered value.
Operation of Measured Values Calculated from Metered Values
With the measured value calculated from metered values, the High Voltage Bay Control Unit 6MD66x forms
the power from the applied current and voltage values or from any desired measured values and integrates this
calculated power value over time. T he result is a power value with the precision of the device (0.5%), i.e. an
operating metered value which cannot be used for adjustment.
Table 2-2 Operating metered values
The following types of information can be allocated to a metered value window in the DIGSI configuration
matrix.
• Metered value calculated from measured values
• Pulse metered value
The same operations are possible with pulse and measured values calculated from metered values, e.g. reset
- to set back to a specified value etc..
Measured values Possible units
Wp+ Active powe r, output kWh, MWh, GWh
Wp– Active power, input kWh, MWh, GWh
Wq+ Reactive power, output kVARh, MVARh, GVARh
Wq– Reactive power, input kVARh, MVARh, GVARh
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2.5.2 Using the Pulse Metered Value
In this example, the active power of a 3-phase system is to be integrated over time and displayed as a metered
value. The pulse output of an external device which supplies the active power pulse accordingly , is to be applied
to a binary input of the device. The energy corresponding to a pulse must be known.
Inserting a pulse metered value
Open the configuration matrix of the device and select Only measured and metered values as the information
type.
Create the group Energy in the configuration matrix.
Open the information catalog and select the line Pulse (PMV) under Power Meter → Pulse .
Figure 2-8 Selecting information type pulse metered value
Drag the selected information type with the left mouse button into the Energy group in the configuration matrix.
Configuring a Pulse Met ere d Value
Allocate the inserted pulse mete red value in the configuration matrix to a bina ry input as the source.
Allocate the inserted pulse metered value in the configuration matrix to the destination Metered value window .
Configuring a Pulse Met ere d Value
The properties of the pulse me tered values can be configured via a dialog box.
Right-click on the information item PulseMV in the Information column, Display text in the configuration
matrix.
Select Properties... from the context menu. The Object prope rties dia log box is opened.
Select the tab Measured value description and enter the unit kWh and the desired number of decimal places.
Enter the value which corresponds to a pulse of the external counter in the unit selected above into the input
box Conversion factor . For example, enter 0.1 if a pulse corresponds to the energy 0.1 kWh and the unit kWh
was selected above.
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Figure 2-9 Object properties dialog box, Measured value description tab
Select the tab Restore trigger and energy flow direction and enter the restore trigger and energy flow direc-
tion.
Select the Cyclic option if the metered value is to be transmitted to the control centre at cyclic intervals. Oth-
erwise select the None option. By clicking the Settings button, you end up in the dialog box for setting the cor-
responding time interval. One minute is preset.
Note
The settin gs ma de in the Cyclical restoring tab apply globally for all metered values.
Under Energy flow direction, you define whether the metered value summates the quantity of exported or im-
ported energy by selecting one of the two options.
Figure 2-10 Object properties dialog box, Restore trigger and en ergy flow direction tab
Select the tab Pulse type and error input and make your settings there.
Select the Wiping pulse / S0 option if the rising edge of a single pulse is to increment the metered value by
one. Select the Double current pulse option if the falling edge of a double current pulse is to increment the
metered value by one.
As soon as you route a pulse metered value to a binary input, the next binary input can be automatically routed
as a fault input. A signal to this fault input can mark the count as corrupt. If you use this procedure, select the
Use fault input checkbox. If it is not selected, the binary input following the metered pulse input is available to
another application.
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Figure 2-11 Object properties dialog box, Pulse type and error input tab
Accept the settings with OK.
2.5.3 Use Measured Value / Metered Value
In this example, the active power of a 3-phase system is to be integrated over time and displayed as a metered
value. Here, a measuring transducer packet MU3P_1 which must be identified as available in the function
scope of the device is used. It is configured with the secondary voltage nominal value 100.00 V and the sec-
ondary current nominal value 1 A. The rated data of the network is 110 kV and 20 kA.
Inserting a Measured Value / Metered Value
Open the configuration matrix of the device and select Only measured and metered values as the information
type.
Open the information catalog and select the line PowerMeter (MVMV) under PowerMeter → PowerMeter .
Figure 2-12 Selecting information typ e measured value metered value
Drag the selected information type with the left mouse button into t he MU3P_1 group in the configuration
matrix.
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Allocating a Measured Value / Metered Value
Allocate the inserted information item to the source Measured value in the configuration matrix and select
3P1_P from the list.
Allocate the inserted information item to the Metered value window destination in the configuration matrix.
Configuring a Measu red Value / Meter ed Value
The properties of the measured value / metered values can be configured via a dialog box.
Right-click on the information item MeasVMV in the Information column, Display te xt in the configuration
matrix.
Select Properties... from the context menu. The Object properties dialog box is opened.
Select the tab Measured value description and enter the unit MWh and 2 as the number of decimal place s.
Using the conversion factor, you can convert the input signal to match the selected unit and data of the mea-
suring transducer. The co nversion always refers to the 100% value of the input sign al with measured values.
If a measuring transducer packet supplies the currents and voltages as the power 3811 MW at a 100% value,
this is the energy value which accumulates in a MWh.
100% power over one hour is equivalent to 60,000 pulses. The conversion factor to be entered is therefore the
power divided by 60,000.
Enter the calculated value 0.0635 into the Conversio n factor input box (3811 MW divided by 60,000).
Figure 2-13 Object properties dialog box, Restore trigger and en ergy flow direction tab
Select the tab Restore trigger and energy flow direction and enter the restore trigger and energy flow direc-
tion.
Select the Cyclic option if the metered value is to be transmitted to the control centre at cyclic intervals. Oth-
erwise select the None option.
By clicking the Settings button, you end up in the dialog box for setting the corresponding time interval. One
minute is preset.
Note
The settin gs ma de in the Cyclical restoring tab in this dialog box apply globally for all metered values.
Under Energy flow direction, you define whether the metered value summates the quantity of exported or
imported energy by selecting one of the two options.
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Figure 2-14 Object properties dialog box, Restore tri gger and energy flow direction tab
Accept the settings with OK.
Predefined Metered Values
The figure below shows a list of predefined metered values.
Figure 2-15 D efault metered values
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2.6 Threshold-Switch
Using the Threshold switch function, you can set transmission thresholds and allocate the threshold switches
to individual or multiple measured values.
2.6.1 Description
The threshold value procedure consists of the Transmission threshold configuration dialog and the threshold
switch.
Transmission thr eshold
The transmission threshold determines the transmission frequency of measured values. It is specified in per-
centage. If zero is selected as the threshold value for the transmission threshold, each measured value change
will be transmitted to the higher-level station. This, however , would overload the communication line within short
time. A threshold value not equal to zero results in all changes to new measured values being added compared
to the last measured value transmitted. If the sum of the changes reaches the set percentage, a new measured
value is transmitted at the next possible point in time.
Perform the settings in the DIGSI configuration matrix. You can set the central threshold, configured threshold
and switching object in the object pr op erties of the measured value, tab Transmission threshold.
• Use central threshold (10%): Select this check box to use the factory-preset threshold value of 10 %. This
de-activates all the other input and output options in this tab.
•Parameterised threshold: Set the desired value in this rotating box. The set value multiplied by 0.1 %
results in the threshold value.
•Switching object: A changeover from the central and the parameterised threshold can be initiated by the
status of a message. From the drop-down menu, select the indication whose status shall initiate a
changeover.
The following figure serves as an example of summation formation for a threshold of 10%. Here, the values
are summated (in the left example 4.5% / –3% / 3.5% => 1 1%) and transmitted at the next possible point in time
in case the threshold is exce eded.
Figure 2-16 Summation for threshold value
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Threshold switch
The group Software switch (in the DIGSI configuration matrix) contains all potential switching objects. Thresh-
old 1 is the preset value.
You can add additional thresholds (single point indications) from the information catalog. Assign the threshold
value switch to one or several measured values via the Switching object setting in the measured-value object
properties.
2.6.2 Information List
No. Information Type of In-
formation Comments
- ThreshVal1 IntSP Threshold Value 1
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2.7 Circuit breaker synchronisation
If the synchronizatio n function of the device is active, the device can check whether the synchronization con-
ditions of both subnetworks are fulfilled (synchrocheck) when the circuit breake r is closed.
The device distinguishes between synchronous and asynchronous networks and reacts differently on the
connection.
Systems are called synchronous if their difference frequency is small. The concrete value depends on the pa-
rameter settings. In synchronous networks the CB operating time is not considered.
In asynchronous networks the difference frequency is greater and the area of the energization window is tra-
versed more quickly. Therefore, the circuit-breaker operating time has to be taken into consideration. The
switching command is automatically dated forward by this time so that the CB contacts close exactly at the right
moment. The automation function in the device allows using different reference voltages of the active busbar
for the synchronization, regard less of the disconnector positi on. Up to eight different settings groups can be
stored for the synchronization function for use during operation. The different properties of several circuit-
breakers can thus be accounted for.
The synchronization functi on groups six to eight differ from the groups one to five essentially due to the con-
nection of the voltage transformers. Various connection examples can be found in the Appendix.
2.7.1 Function Description
The SIPROTEC 4 device 6MD66x provides parameterization options for eight different synchronization func-
tions. The function and operati ng principle is described below by means of the SYNC function 1 (valid for
all function groups). Specifics of the SYNC functions 6 to 8 are summarized in a separate section (see 2.7.2),
2.7.1.1 Functioning
The synchronisation function is used in the control system for connecting two subnetworks during operational
switch or for operational switch on or on the protection level after a three-pin short or long interruption. The
synchronisation function ensures that the connection is only performed if both subnetworks are synchronous
to each other or the deviation is within the defined limits.
The connection is performed if the following conditions are met at the moment of establishing the isolated con-
nection:
• Voltage magnitudes Umin < | U | < Umax
• Difference of voltage magnitudes | ΔU| <Δ Umax
• Frequencies fmin ≤ f ≤ fmax
• Difference of frequencies Δ f < Δ fmax
• Difference of angles Δ α < Δ αmax
• Speed of the frequency difference change (optional) d delta f / dt < d fdiff dt
For safety reasons, energization during large frequency differences and large CB operating times is only
allowed below the curve shown in the illustration. Bear this in mind during paramete rization.
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Figure 2-17 Maximum permissible difference in frequency as a function of the circuit-breaker operating time
The following illustration depicts the maximum settable limits for f SYNC in dependence on the CB operating
time at a maximum allowable displacement angle of 9°.
Figure 2-18 Maximal limits for f SYNCHRON
The Dead bus and Dead line connection are special cases. In this case, connection is made depending on
the configuration under the following conditions:
• Dead Line | Ubb |> Umin and | Uline |< Udead and fmin ≤ fbb ≤ fmax
• Dead bus | Ubb |< Udead and | Uline |> Umin and fmin ≤ fline ≤ fmax
• Dead line & Dead bus | Ubb |< Udead and | Uline |< Udead
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Busbar voltage Ubb and feeder voltage Uline are assigned to voltages U1 and U2 depending on how the device
is connected. Connection examples can be found in the Appen dix.
The connection is performed on an idle busbar, on an idle feeder or on both.
A synchronization comparison with the runtime of the synchronization function can be executed by means
of definitely applied voltages (normal case) or by means of a voltage application vi a relay.
The synchronisation comparison including an application of the voltage is necessary e.g. for multiple busbars
or in case of a failure of the coupling circuit breaker (backup switching). Additional preparatory switching oper-
ations as well as the selection of the subsettings group are necessary for applying the voltage at the time of the
comparison. The settings must be stored in the control device for each combination of subnetworks.
The measuring channels of the reference and feeder voltage must be assigned to each synchronization func-
tion group individually.
Voltage application
If the voltage application is used, the user must set a switching sequence with the following components:
• Voltage application
• Synchronisation
• Voltage deselection
The voltage application option ensures that a 250 ms delay is considered in the measuring algorithm after the
synchronization start. In this way, the measured values can stabilize.
With activated Filter LFO the delay time is extend e d by 1.25 s.
Low-Frequency Oscillations (LFO) Filter (optio nal)
The Filter LFO is a filter for low-frequency oscillations ranging from 0.8 Hz to 1.6 Hz. It is only effective for
synchronous networks, not for asynchronous networks. The filter filters out all frequency components inside
the frequency range from 0.8 Hz to 1.6 Hz and forms a filtered frequency mean value.
A synchronous network is not detected if the filtered average value of the frequencies lies outside the permis-
sible range (parameter f SYNCHRON) or if the unfiltered frequency measured value lies outside the permissible
range (parameter f SYNCHRON plus parameter f Deviation). The set release of time delay is automatically
extended by 1 sec. if the Filter LFO is activated. This procedure ensures that asynchronous conditions can
be correctly detected during low frequency power swing conditions, even if the parameter f Deviation is
used for extending the permissible range.
The filter also clears up the measured value rate of change of frequency for the synchronous range (parameter
d fdiff dt syn) of low frequency components.
The filter can be disabled (parameter Filter LFO = No).
In the example shown in the next figure, the synchrocheck function would initiate energization, if the allowed
frequency difference was set to 10 mHz without Filter LFO as soon as the frequency f2 enters the 10-mHz
band. With Filter LFO energization is not initiated, since th e mean value of f2 is outside of the band.
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Figure 2-19 Example: Frequency difference between the constant frequency f1 and the sinusoidal oscillat-
ing frequency f2
Figures 2-21 to 2-23 give an overview of the input and output indications of the synchronization function.
Checking the change-of-frequency speed
To check the change-of-frequency speed, you can use the parameters d fdiff dt syn (for synchronous
networks) and d fdiff dt asyn (for asynchronous networks). It will not switch on if the parameterized
threshold value is exceeded. The check is sw itched off if the threshold value is set to ∞.
Field of applica tion internal control, intern al syn c hron is a tion
The synchronization with internal control and internal synchronization is the standard application with 6MD66x.
Maximally 8 function groups (SYNC functions group 1 to 8) with different parameter sets are available.
The assignment of the synchronisation-requiring control device to the corresponding synchronisation settings
group is performed via the SyncSD setting (control device to be synchronised).
By the time of the switching operation, the function group selection can be controlled dynamically via the Sync.
effective input message. The Sync. effective input indication can be configured to a binary input, CFC or IRC.
Unsynchronised switching is performed if no synchronization functi on is effective (Sync. effective OFF).
The contact between the control and the synchronization function is performed inte rnally via indications:
•„>Sy1 Meas“ (Measurement request)
•„Sync. CloseRel“ (Enable switch-on)
•„Sync. synchron“ (i n case of an error)
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Field of Application External Control, Internal synchronization
The 6MD66x also enable the synchronisation via an external control and internal synchronisation.
To directly connect an external control, the setting of the control device to be synchronised must be set to
none.
By the time of the switching operation, the function group selection can be controlled dynamically via the Sync.
effective input message. The Sync. effective input indication can be configured to a binary input, CFC or IRC.
Unsynchronised switching is performed if no synchronization function is effective (Sync. effective OFF).
In this case, the contact between the control and the synchronization function is performed internally via indi-
cations:
•„>Sy1 Meas“ (Measurement request), on binary input
•„Sync. CloseRel“, on relay (for outputting the switch-on command)
•„Sync. synchron“, on relay (for signalling the synchronous state)
Subfunctions
The synchronization check is composed of the two subfunctions control and synchronization.
•The control function ensures the coordination of the complete co mmand procedure:
– Coordination of the different switching directions
– Standard interlockings such as timeout protection
– Command connection/disco nnection of the command relays
– Command logging CO+/-, FB+/- and COE.
– Feedback to the operator (operator response).
•The Synchronisation function processes the measuring phase of:
–„>Sy1 Meas“ (Measurement request), start of measurement, to
–„Sync. CloseRel“, switching release.
Phases of command proce ssing with synchrocheck
Depending on the setting and the current process condition, the individual phases of the command processing
are executed, skipped or the command processing is aborted. When integrating the synchronization procedure
into a switching sequence, the deselection phases must be processed correspondingly also in case of an abor-
tion.
•Voltage application: The voltage application (applying measured values at the time of the switching oper-
ation) is optional. It is, for example, set via a switching sequence in CFC. The corresponding measured
values must be switched to the device analog inputs via relays.
•Selection of the SYNC function group(if necessary): The SYNC function group selection (selection of a
function group with its settings and indications) is optional. The selection is only required if several SYNC
function groups are actually switched active. It is, for example, set via a switching sequence in CFC. The
selection is performed by acti vating the input in di ca ti o n „>Sy1 eff.“ effective.
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•Switchgear interlocking: This phase ex ecutes th e contro l subfun ction. It serves to execute all switchgear
interlocking checks an d to state if switching is permitted or not.
In additon to this, it is checked if maximally one synchronisation function (measur ing phase) is active.
•Checking start conditions: This phase executes the control subfunction. A check determines whether
switching is to occur with or without synchronisation. It serves to execute all switchgear interlocking checks
and to state if switching is permitted or not.
In additon to this, it is checked if maximally one synchronisation function (measur ing phase) is active.
–Control direction:
Control command = ON: Continue with synchronisation check.
Control command = OFF: Continue with control phase (no synchronisation required).
–Synchronisatio n check:
Checks whether the contro l device concerned shall be switched on synchroni sed or evaluation of the
number of input indications „>Sy1 eff.“ = ON.
–Analysis of the operating mode
Evaluation of the input indications of the selected group.
Table 2-3 Start conditions check phase, SYNC function group selection
Table 2-4 Start conditions check phase, operating mode analysis
Number of SYNC function groups
including the control device to be
switched
Number of input messa ges
„>Sy1 eff.“ = ON
Reaction
0 Irrelevant Unsynchronised control device,
continue with control phase
≥ 1 0 Unsynchronised switching, con-
tinue with control phase
≥1 1 Unambiguous allocation, contin-
ue with operating mode analysis
and activated group
>1 >1 Error , abort with BF (too many
groups effective)
„Sync. Error“ „Sync. CloseRel“ Reaction
ON Irrelevant Abort with BF-
OFF ON Switching enable, continue with control phase
OFF OFF Continue with Measuring phase, tripping by:
>SyMeasON
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•Measuring: This phase executes the synchronisation subfunction.
This phase is coordinated by means of input indications:
–„>Sy1 Meas“, start/stop of measurement
–„>Sy1 dirCO“, bypassing
–„>Sy1 rlblk“, block switching enable
The actual measuring procedure with the output messag es starts afte rw ar ds:
–„Sync. CloseRel“, switching enable (continue with control phase)
–„Sync. Error“, synchronisation failed
–„Sync. block“, switching enable blocked
–„Sync.MonTimeExc“, moni toring time exceeded
Figure 2-20 Input and output indications of the synchronization function (part 1)
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Figure 2-21 Input and output indications of the synchronization function (part 2)
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Figure 2-22 Input and output indications of the synchronization function (part 3)
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Figure 2-23 Input and output indications of the synchronization function (part 4)
Table 2-5 Controlling the measuring ph ase
A measurement request „>Sy1 Meas“ ON in the state „>Sy1 rlblk“ ON corresponds to the measurement
initiation in the SINAUT LSA.
An abort of the measuring phase is initi ated via „>Sy1 Meas“ OFF.
Action Measuring Reaction
„>Sy1 Meas“. ON and
„>Sy1 dirCO“ = ON and
„Sync. block“ = OFF
Switching enable: „Sync. CloseRel“ ON
„>Sy1 Meas“ ON and
„>Sy1 dirCO“. = OFF Start
„>Sy1 Meas“. OFF Stop
Synchronisation conditions reached, or
„>Sy1 dirCO“. ON and
„>Sy1 rlblk“ = ON and
„Sync. block“ = OFF
Stop Switching enable: „Sync. CloseRel“ ON
Synchronisation conditions reached, or
„>Sy1 dirCO“ ON and
„Sync. block“ = ON
Stop
„>Sy1 rlblk“ = OFF Irrelevant Switching releases are given:
„Sync. block“ OFF
„>Sy1 rlblk“ = ON Irreleva nt Switch ing enables are blocked:
„Sync. block“ ON
„>Sy1 Meas“ ON and
„>Sy1 block“ ON Stop Aborts the synchronization
Monitoring time exceeded
T-SYN. DURATION Stop Indication:
„Sync.MonTimeExc“ ON
Errors (problems in the synchronisation
function) Stop Indication:
„Sync. Error“ ON
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•Control: This phase executes the control subfunction.
The command procedure is aborted for:
– Abort command with AC+
– Monitoring time exceeded T-SYN. DURATION with CO-
–„Sync. Error“ ON, synchronisation failed with CO-
The command procedure is started via the following indication:
–„Sync. CloseRel“ ON, switching enable comes with CO+
The normal command sequence runs afterwards.
•Deselection of the SYNC function group: The action selection of the SYNC function group must be ter-
minated. This is also true for an abort of the command procedure.
•Voltage de selection: The voltage application action must be terminated. This is also true for an abort of the
command procedure.
Interfaces
The following data are relevant for the user as an interface:
•Commands,
Commands to the circuit breaker/the function fro m different initiators.
•Input indications,
Indications for controlling the synchronisation function.
•Output indications,
Indications on the state of the synchronisation function and indications on switch -impeding criteria.
•Measuring channels,
Allocation of the logical inputs of the synchronisation function on the voltage transformer (analogue input).
•Measured values,
calculated measured values of the synchronisation function.
•Indications,
Indications on the command procedure (such as CO+/CO-).
•Settings,
Settings for configuring properties.
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Commands
Table 2-6 Start conditions check phase, operating mode analysis
Input indications
The input indications are enabled once per synchronization settings group. For this reason, they are configured
as often as synchronization settings groups are required.
Table 2-7 Input indicati on s, SYN C fun c ti o n groups
Code Explanation
Command ON/OFF
to SyncSD Control command from different initiators.
ON: Control command for switchi ng the control device on. (with or without
synchronisation procedure)
OFF: Control co mmand for switching the control device off. (without synchro-
nisation proced ure)
Command abort
- to Sync SD, or
- to all
Abort command, a running command procedure, the synchronisation or
switching procedure must be aborte d.
Abort of the synchronisation procedure is without conditions.
Abort of the synchronisation procedure is only possible for a command with
operating mode "impulse, interruptible".
Code Explanation
„>Sy1 eff.“ Function effective.
Activation and deactivation of a function group. In the "Testing start conditions"
phase, the SYNC function group is selected by means of this indication.
For selecting a group or for a unique emergency control, a switching sequence must
be set via CFC, e.g. for emergency control:
- effective OFF
- command ON
- effective ON
An emergency control can also be reached via „>Sy1 dirCO“ ON, how ever only if
„>Sy1 rlblk“ OFF.
ON: The group is effective.
OFF: The group is ineffective (unsynchronised switching).
„>Sy1 block“ Aborts the synchronization
„>Sy1 rlblk“ Block switching enable.
The synchronisa tion functions normally (the measuring function is executed), but a
switching enable is prevented. The blo cking of the switchi ng enable is signalled via
the „Sync. block“ output in dication.
ON: switching enables are bloc ked.
OFF: switching enables are provided.
„>Sy1 dirCO“ Bypassing.
The measuring function is bridged, i.e. a measurement for „>Sy1 rlblk“ OFF immedi-
ately initiates a switching enable.
ON: The measuring func tion is skipped or stopped with „>Sy1 Meas“. ON. The
switching enable is provided.
OFF: The measuring function is started with „>Sy1 Meas“ ON.
„>Sy1 Meas“ Start/stop of the (measuring) synchronization function.
ON: The synchroni sation function is started.
OFF: The synchronisati on function is aborted.
„>Sy1U1>U2<“ Switch test V2 dead on / off.
ON: Connection occurs even if voltage V2 is missing.
(The threshold value for dead line or busbar can be configured.)
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Note
The meaning of indication „>Sy1 block“ has changed from version 4.30 on.
Old meaning: Block switching enable
Now: Cancel synchronization
Reason: standardization with other SIPROTEC4 devices
The new indi cation „>Sy1 rlblk“ now assumes the old meaning: Block switching enable.
Likewise, a compatible firmware extension has been implemented.
Measuring channels
The input measuring channels describe a measured-value channel and can be configured directly on an analog
input in the DIGSI configuration matrix.
Table 2-8 Input measuring chann els, function group FB_SYNC 1 to 5
Output indications
Status messages are output from the synchronization function. The status messages are output in the context
of the active FB_SYNC function module.
„>Sy1U1<U2>“ Switch test V1 dead on / off:
ON: Connection occurs even if voltage V1 is missing.
(The threshold value for dead line or busbar can be confi gured.)
„>Sy1U1<U2<“ Swtich test V1 & V2 dead on / off.
ON: Connection occurs even if voltages U1 and U2 are missing. (The threshold
value for dead line or busbar can be configured.)
Code Explanation
Code Explanation
„Sy1 ChU1“ Channel of voltage V1.
„Sy1 ChU2“ Channel of voltage V2.
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Table 2-9 Output messages of the synchronisation function
Code Explanation
„Sync. CloseRel“ Synchronisation conditions exist, switching is enabled .
ON: This immediately leads to a switching command (triggering of command relays).
„Sync. Error“ Error, problems withi n the synchronisation functi on.
„Sync. block“ Aborts the synchronization.
„Sync. CLOSE BLK“ Blocking by external event.
„Sync.MonTimeExc“ Monitoring time exceeded
„Sync. synchron“ The networks meet the synchronisation conditions for asynchronous or synchronous
networks.
„Sync. U1> U2<“ Condition V2 dead exists.
„Sync. U1< U2>“ Condition V1 dead exists.
„Sync. U1< U2<“ Condition U1 & U2 dead exists.
„Sync. Vdiff>“ The difference voltage amount is greater than the settin g.
The corresponding SVK_Udiff measured-value indication is transmitted additionally.
„Sync. fdiff>“ The difference voltage amount is greater than the setting.
The corresponding SVK_Fdiff measured-value indication is transmitted additionally.
„Sync. α diff>“ The amount of the difference angle is greater than the setting.
The corresponding SVK_Fdiff measured-value message is transmitted additionally,
provided that the Fdiff < FdiffSyn condition is met.
„Sync. f1>>“ The f1 frequency is greater than the fmax setting.
The corresponding SVK_F1 measured-value message is transmitted additionally.
„Sync. f1<<“ The f1 frequency is smaller than the fmin setting.
The corresponding SVK_F1 measured-value message is transmitted additionally.
„Sync. f2>>“ The f2 frequency is smaller than the fmax setting.
The corresponding SVK_F2 measured-value message is transmitted additionally.
„Sync. f2<<“ The f2 frequency is smaller than the fmin setting.
The corresponding SVK_F2 measured-value indication is transmitted additionally.
„Sync. U1>>“ The U1 voltage is greater than the Vmax setting.
The corresponding SVK_Usyn1 measured-value indication is transmitted additionally.
„Sync. U1<<“ The U1 voltage is smaller than the Vmin setting.
The corresponding SVK_Usyn1 measured value indication is transmitted additionally,
provided that Dead Bus is not switched on or that no Dead Bus voltage was set.
„Sync. U2>>“ The U2 voltage is greater than the Vmax setting.
The corresponding SVK_Usyn2 measured-value indication is transmitted additionally.
„Sync. U2<<“ The U2 voltage is smaller than the Vmin setting.
The corresponding SVK_Usyn2 measured value indication is transmitted additionally,
provided that Dead Line is not switched on or that no Dead Li ne voltage was set.
„Sync. syn“ Synchrocheck detected synchronous network
„Sync. asyn“ Synchrocheck detected asynchronous network
„Sync.dFdiffdtS>“ Magnitude of the speed of difference frequency change > parameter for the synchro-
nous section; this indication is generated when the parameter is exceeded.
„Sync.dFdiffdtA>“ Magnitude of the speed of difference frequency change > parameter for the asynchro-
nous section; this indication is generated when the parameter is exceeded.
„Sync. fDev>“ The pe rmi ssi b l e de vi a ti o n of the un filtered frequency difference at low-frequency os-
cillations was exceeded
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Measured values
The measured values are calculated by the meas uring function and made available for display or further pro-
cessing (e.g. for limit-value determination in CFC).
The configuration specifies the way in which measured values are displayed, further processed and forwarded
to the higher-level control centre.
The measured values are calculated for each SYNC function group. The storage is performed independent of
the information objects.
Table 2-10 Synchronisation measured values
2.7.1.2 Setting Notes
T-CB close
The circuit breaker closing (operating) time indicates the runtime of the circuit breaker including all relay and
contactor pickup times. It can be specified in the predefined range. A default value is preset.
Balancing U1/U2
Adaptation of the V1 and V2 voltages is possible with the Balancing U1/U2. It can be specified in the pre-
defined range. A default valu e is pre s et.
α Tr. U1-U2
The phase angle offset is set with the angle adaptation initiated by the transformer vector group. The angle
faults of imprecise primary transformers can also be corrected. The phase angle can be set in the predefined
range. A default value is set.
SecTransNomVal1
Here, the secondary rated transformer voltage V1 of the measure d - va lu e inpu t for the relevant refere nce
voltage must be set on the input/output modules. In this context, it must be observed that, in case of a measur-
ing voltage application, transformers with the same transformation ratio and the same connection must be used
for all conne ctable voltages. Th e voltage can be set in the predefined range. A default value is preset.
Code Explanation
„Sync. U1“ Synchronisation voltage „Sync. U1“ is generally also the reference voltage.
„Sync. U2“ Synchronization voltage „Sync. U2“ is generally also the feeder voltage.
„Sync. Vdiff“ Difference of synchronisation voltages
„Sync. U1“ and „Sync. U2“.
„Sync. α“ Angles between the voltages
„Sync. U1“ and „Sync. U2“.
„Sync. f1“ Frequency of the synchronisation voltage „Sync. U1“.
„Sync. f2“ Frequency of the synchronisation voltage „Sync. U2“.
„Sync. fdiff“ Frequency difference between f(„Sync. U1“) and f(„Sync. U2“).
„Sync. df S“ Frequency difference f(U1), f(U2), low-frequency components filtered out (0.8 Hz
to 1.6 Hz) (Filter LFO = yes)
„Sync.ddfdt“ Speed of the frequency difference change
„Sync.ddfdtS“ Speed of the frequency difference change, low-frequency components filtered
out (0.8 Hz to 1.6 Hz)
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SecTransNomVal2
Here, the secondary rated tran sformer voltage V2 of the measured-value input for the relevant reference
voltage must be set on the input/output modules. In this context, it must be observed that, in case of a measur-
ing voltage application, transformers with the same transformation ratio and the same connection must be used
for all connectable voltages. The voltage can be set in the predefined range. A defaul t value is preset.
SyncSD
Control device to be synchronized. The synchronization function can be used for controlling an internal or ex-
ternal command procedure. In case of an internal command processing, a connection to the control device to
be synchronized is established at the parameter SyncSD. The command is initiated via a control command to
the control device, e.g. from the control display. In case of an external command processing, the parameter is
"none".
Umin
The lower voltage limit Umin specifies the minimum voltage which may be connected. It can be specified in
the predefined range. A default value is preset.
Umax
The upper voltage limit Umax specifies the maximum voltage which may be connected. It can be specified in
the predefined range. A default value is preset.
Udead
The voltage threshold indicates the voltage maximum up to which a line or busbar is detected as dead. It can
be specified in the predefined range. A default value is preset.
Sync.U1>U2<
This parameter serves to specify if a connection is to take place in case of a healthy busbar and a dead line or
dead generator (Dead Line). The default setting is No.
Sync.U1<U2>
This parameter serves to specify if a connection is to take place in case of a dead busbar and a healthy line
(Dead Bus). The default setting is No.
Sync.U1<U2<
This parameter serves to specify if a connection is to take place in case of a dead busbar and a dead line (Dead
Line and Dead Bus). The default setting is No.
T-SYN. DURATION
The maximum duration of synchronisation check must be set here. If the connection cannot be established suc-
cessfully within this period, the synchronization procedure is aborted. It can be specified in the predefined
range. A default value is preset.
fmin
This setting defines the lower limit of the frequency range in which the synchronous connection is permissible.
The working range of the me asuring procedures is not in fluenced. The lower limit of the frequency wo rking
range must be lower than its upper limit. It can be specified in the predefined range. A default value is set.
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fmax
This setting defines the upper limit of the frequency working range in which the synchronous connection is per-
missible. The working range of the measuring procedures is not influenced. The upper limit of the frequency
working range must be higher than its lower limit. It can be specified in the predefined range. A default value is
set.
UdiffAsyn
This setting indicates the maximum voltage difference of the amounts of Vsyn1 and Usyn2 for asynchronous con-
ditions. It can be specified in the predefined range. A default value is preset.
fdiff
This setting indicates the maximum frequency difference up to which a connection is permissible for asynchro-
nous systems. It can be specified in the predefined ran ge. A default value is preset.
f SYNCHRON
This setting indicates the maximum frequency difference up to which a connection is permissible for synchro-
nous systems. It can be specified in the predefined range. A default value is preset.
UdiffSyn
This setting indicates the maximum voltage difference of the amounts of Usyn1 and Usyn2 for synchronous con-
ditions. It can be specified in the predefined range. A default value is preset.
αdiff
The parameter specifies the maximum allowable angle between the voltages of the subnetworks at which the
connection takes place. It is effective when the frequency difference of the subnetworks Δf ≤ FdiffSyn applies, i.e.
in the operating state "synchronous networks". But if the device has recogni zed the two subnetworks to be
"asynchronous", a fixed allowed difference angle of + 5 degrees will alw ays be accoun ted for. The angle can
be varied in the preset range. A value is set by default.
T SYNCHRON
This parameter indicates the switch delay time for synchronous networks. Thi s is th e mi ni mu m pe ri o d, the
UdiffSyn (maximum permissible voltage difference), f SYNCHRON (maximum pe rmissible frequency differ-
ence) and αdiff (angle difference) which must remain in the parameterised range until the control command
is initiated. If a value leaves the parameterised range, the time counter is reset. It can be specified in the pre-
defined range. A default value is set.
Note
To obtain a stable connection range, the measured values have a hysteresis:
± 10 % or ± 1 V for voltages (the respectively lower value is valid).
± 20 mHz for frequencies.
± 1 ° for angles.
Filter LFO
This parameter specifies whether low-frequency oscillations ranging from 0.8 Hz to 1.6 Hz in the frequency
signal are filtered before connecting the subnetworks. The default setting is No.
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f Deviation
The parameter defines the permissible deviations of unfiltered frequency differences from the frequency thresh-
old f SYNCHRON at low-frequency oscilla tions. It is only active if Filter LFO is activated.
d fdiff dt syn
The parameter defines the maximum allowa ble speed of change of the frequency difference up to which syn-
chronous networks will be connected .
d fdiff dt asyn
The parameter defines the maximum allowa ble speed of change of the frequency difference up to which syn-
chronous networks will be energized.
2.7.1.3 Settings
Addr. Parameter Setting Options Default Setting Comments
0 T-CB close 0.01 .. 0.60 sec 0.06 sec Closing (operating ) time of CB
0 T-SYN. DURATION 1.00 .. 2400.00 sec 30.00 sec Maximum dura tio n of synchro-
nism-check
0 fmin 92 .. 105 % 95 % Minimum frequency
0 fmax 95 .. 108 % 105 % Maximum frequency
0 SyncSD ( Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α Tr. U1-U2 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin 20 .. 125 V 90 V Minimum Voltage for Synchroni-
zation
0 Umax 20 .. 140 V 110 V Maximum Voltage for Synchroni-
zation
0 Udead 1 .. 60 V 5 V Voltage Tr eshold for Dead
Line/Dead Bus
0 Sync.U1>U2< YES
NO NO Synchro nize to U1> and U2<
0 Sync.U1<U2> YES
NO NO Synchro nize to U1< and U2>
0 Sync.U1<U2< YES
NO NO Synchro nize to U1< and U2<
0 UdiffSyn 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn-
chronous
0 fdiff 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff 2 .. 90 ° 10 ° Maximum angle difference, syn.
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2.7.1.4 Information List
0 UdiffAsyn 0.5 .. 50.0 V 2.0 V Maximum voltage differnece,
asynchronous
0 f SYNCHRON 10 .. 100 mHz 10 mHz Frequency diff. treshold
Sync/Async.
0 T SYNCHRON 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fdiff dt syn 10 .. 25 mHz/s; ∞∞mHz/s Ma x imum difference df/dt syn.
0 d fdiff dt asyn 50 .. 500 mHz/s; ∞∞mHz/s Ma x imum difference df/dt asyn.
0Filter LFO NO
YES NO Filter low frequency oscillation
0 f Deviation 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
No. Information Type of In-
formation Comments
170.0001 >Sy1 eff. SP >Sync1 effective
170.0024 Sy1 ChU1 MC Sync1, Voltage input U1
170.0025 Sy1 ChU2 MC Sync1, Voltage input U2
170.0041 >Sy1 block SP >Sync1 block
170.0042 >Sy1 dirCO SP >Sync1 direct Command Output
170.0043 >Sy1 Meas SP >Sync1 Measueme nt only
170.0044 >Sy1U1>U2< SP >Sync1 switch to U1> and U2<
170.0045 >Sy1U1<U2> SP >Sync1 switch to U1< and U2>
170.0046 >Sy1U1<U2< SP >Sync1 switch to U1< and U2<
170.0049 Sync. CloseRel OUT Sync. Release of CLOSE Command
170.0050 Sync. Error OUT Synchronization Error
170.0051 Sync. block OUT Sync. blocked
170.0052 Sync.MonTimeExc OUT Sync. Monitoring Time exceeded
170.0053 Sync. synchron OUT Sync. Synchron
170.0054 Sync. U1> U2< OUT Sync. Condition U1> U2< fulfilled
170.0055 Sync. U1< U2> OUT Sync. Condition U1< U2> fulfilled
170.0056 Sync. U1< U2< OUT Sync. Condition U1< U2< fulfilled
170.0057 Sync. Vdiff> OUT Sync. Voltage difference exceeded
170.0058 Sync. fdiff> OUT Sync. frequency difference exceeded
170.0059 Sync. α diff> OUT Sync.angle difference exceeded
170.0060 Sync. f1>> OUT Sync. frequen cy f1 too high
170.0061 Sync. f1<< OUT Sync. frequen cy f1 too low
170.0062 Sync. f2>> OUT Sync. frequen cy f2 too high
170.0063 Sync. f2<< OUT Sync. frequen cy f2 too low
170.0064 Sync. U1>> OUT Sync. voltage U1 too high
170.0065 Sync. U1<< OUT S ync. voltage U1 too low
170.0066 Sync. U2>> OUT Sync. voltage U2 too high
170.0067 Sync. U2<< OUT S ync. voltage U2 too low
Addr. Parameter Setting Options Default Setting Comments
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2.7.2 SYNC function groups 6 - 8, special features
The SYNC function groups 6 to 8 offer other variations for connection of the voltage transformer. Connection
examples can be found in the Appendix.
2.7.2.1 Description
SYNC function groups 6 to 8 do not differ from SYNC function groups 1 to 5 in terms of function, operation and
configura ti o n op ti o n s . Th ey a r e de scribed in detail in Chapter 2.7.1.
With SYNC function groups 6 to 8, two channels with phase-to-earth voltage (U1 1 and U12) are to be allocated
for voltage U1. The phase-to-phase voltage U1 is to be formed from these voltages. The relevant phase-to-
phase voltage is to be connected to voltage input U2.
170.0070 Sync. U1 MV Sync. voltage U1
170.0071 Sync. U2 MV Sync. voltage U2
170.0072 Sync. Vdiff MV Sync. voltage difference U1,U2
170.0073 Sync. αMV Sync. an gle between U1,U2
170.0074 Sync. f1 MV Sync. frequency f1
170.0075 Sync. f2 MV Sync. frequency f2
170.0076 Sync. fdiff MV Sync. frequency difference f1, f2
170.0080 Sync. Udiffsyn> OUT Sync. volt.-diff. exceeded synch. netw.
170.0081 Sync.Udiffasyn> OUT Sync. vol t.-diff. exceeded asynch. netw.
170.0082 Sync. fdiffsyn> OUT Sync. frq.-d iff. exceeded synch. netw.
170.0083 Sync.fdiffasyn> OUT Sync. frq.-diff. exceeded asynch. netw.
170.0084 Sync.dFdiffdtS> OUT Sync.dFdiffdtS>
170.0085 Sync.dFdiffdtA> OUT Sync.dFdiffdtA>
170.0086 Sync. syn OUT Sync. syn
170.0087 Sync. asyn OUT Sync. asyn
170.0088 Sync. df S MV Sync. df S
170.0089 Sync.ddfdt MV Sync.ddfdt
170.0090 Sync.ddfdtS MV Sync.ddfdtS
170.0091 Sync. fDev> OUT Sync. fdiff deviation exceeded
170.2102 >Sy1 rlblk SP >Sync1 release blocking
170.2103 Sync. CLOSE BLK OUT Sync. CLOSE command is BLOCKED
No. Information Type of In-
formation Comments
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Measuring channels
The input measuring channels describe a measured-value channel and can be configured directly on an ana-
logue input with DIGSI.
Table 2-11 Input measuring channels, function groups FB_SYNC 6 to 8
2.7.3 Parameterizing the SYNC function
Synchronisation is a function which must be set as available in the functional scope.
2.7.3.1 Inserting the Synchronisation Function
First select the required synchronisation functions as available in the Functional scope dialo g box in DIGSI.
For this purpose, open the device and click Functional scope in the function sele ction and confirm with OK.
Figure 2-24 S pecifying functional scope
Code Explanation
„Sy6 ChU11“ Channel of phase-to-earth voltage U11LE. This value is required for calculating
a phase-phase voltage U1.
„Sy6 ChU12“ Channel of phase-to-earth voltage U12LE. This value is required for calculating
a phase-phase voltage U1.
„Sy6 ChU2“ Channel of voltage U2.
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2.7.3.2 Configuring Synchronisation
Click Synchronisation in the tree view of DIGSI. The available synchronisation function groups are displayed in
the list box under Function selection. Double-click the function group (e.g. SYNC function group 1) which you
would like to configure. The dialog box for configuration is opened. It contains the tabs System dat a, General,
Asyn. condition and Syn. Condition. See also Chapter 2.7.1, margin heading „Input Indications“.
Select the tab System data and make your settings.
Figure 2-25 Synchronization, System data tab
Make additional settings in the tabs General, Asyn. condition and Syn. Condition.
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Figure 2-26 Synchronization, General tab
Figure 2-27 Synchronization, Asyn. tab Condition
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Figure 2-28 Synchronization, Syn. Conditions tab
Exit configuration of synchronisation with OK.
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2.8 Switchgear Interlocking
The so-called CFC (Continuous Function Chart) allows to configure, among other things, the switchgear inter-
locking conditions in the 6MD66x bay controller in a comfortable graphical HMI. Cross-bay interlocking condi-
tions (system interlocks) can be processed by an exchange of information between bay controllers. The inter-
relay communication has its own interface for this. In bay controllers equipped with the new IEC61850 commu-
nication interface, information can also be exchanged directly through this Ethernet link. This is shown in the
two figures below.
2.8.1 General
Figure 2-29 Switchgear interlocking system with 6MD66 and inter relay communication (IRC)
Figure 2-30 Switchgear interlocking system with 6MD66 and IEC61850—GOOSE
If a link to a substation controller exists, depending on the protocol, the system interlocking conditions can also
be processed in the substation controller (SICAM PAS).
The following table shows the various possibilities at a glance.
Table 2-12 Switchgear interlocking with bay and system interlocking
X = optimum solution
(X) = possible solution
1 with system interlocking via IEC60870-5-103: No check of system interlocking possible with local control from
the bay controller.
2 Note limited number of devices (32 max.)
6MD66x Inter-
nally via CFC Centrally via
IEC60870-5-
103
IEC 61850-
GOOSE Inter-Relay
Communica-
tion (IRC)
Bay interlocking X
System interlocking (X)1XX
2
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This means that you have various possibilities with system interlocking:
• If the IEC60870-5-103 protocol is sele cted as the system interface, the system interlocking should be
checked using IRC, becaus e in th e case of local control from the bay controller (IEC103 slave) no interro-
gation can be sent to the IEC103 master (thi s is a feature of the IEC103 protocol).
• If communication with IEC61850 via Ethernet is used, information for the system interlocking is exchanged
directly from one bay controller to the other (or to any other GOOSE-capable bay controllers). The Ethernet
interface used is the same as for communication with the station controller (see Figure 2-30).
• Inter-relay communication IRC (see Section 2.12) can also be used for exchanging system interlocking in-
formation directly between devices. IRC nodes can only be SIPROTEC 6MD66x bay controll ers. IRC is
handled through a dedicated communication port (see Figure 2-29).
Figure 2-32 below shows a simple example of a circuit breaker interlock on a double busbar feeder (see Figure
2-31).
Figure 2-31 Double busbar feeder
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Figure 2-32 CFC interlocking chart
To release circuit breaker Q0, the position of the busbar disconnectors Q1 and Q2 and of line disconnector Q9
is interrogated ("0“ or "1“), i.e. whether they are in intermediate position or not. The result is ANDed and serves
for releasing the circuit breaker. This means that the circuit breaker may be closed or opened, provided that
non of the three disconnectors are in intermediate position. It is also possible to release the switching direction
(close or open) separately.
The checks prior to command output also include the positions of the two key-operated switches: The top key-
operated switch corresponds to the S5 function familiar from the 8TK switchgear interlocking system (re-
mote/local switchover). The bottom key-operated switch switches over to unlocked command output (S1 func-
tion, position "interlocking OFF" ). To draw attention to the fact that the configured interlocks are ineffective, the
key cannot be removed in "Interlocking Off" position.
The key-operated switches are always included in the check prior to command output; they don't have to be
configur ed (bu t th ey ca n be con figured if requi re d).
Because of the integrated "Interlocking" function, external switchgear interlocking equipment can be dispensed
with.
Moreover, the following (configurable) checks are performed prior to a command output:
• Scheduled = Actual, i.e. is the switching equipment already in the correct position?
• Double operation, i.e,. is another command already being processed?
• Single commands, e.g. for earth switch con trol , can be secured by an extra code.
This is described in more detail in the following paragraphs.
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Interlocked/Non-interlocked Switching
The configurable command checks in the SIPROTEC 4 devices are also called „standard interlocking“. These
checks can be activated via DIGSI (interlocked switching/tagging) or deactivated (non-interlocked).
De-interlocked or non-interlocked switching means that the configured interlock conditions are not tested.
Interlocked switching means that all configured inte rlocking conditions are checked within the command pro-
cessing. If a condition is not fulfilled, the command is rejected, marked with a minus sign (e.g. "CO–"), and a
message to that effect is output.
The following table shows the possible types of commands in a switching device and the corresponding indi-
cations. The indications designated with *) only appear in this form on the device display in the operational logs,
whereas in DIGSI they are shown in the spontaneous indications.
The "plus" appearing in the message is a confirmation of the command execution. The command output has a
positive result, as expected. The "minus" is a negative confirmation and means that the result was unexpected.
The command was rejected.
Possible command replies and their causes are dealt with in /1/. Figure 2-33 shows the operational in dica-
tions relating to command execution and operation response information for a successful operation of the
circuit breaker.
Interlocking checks can be configured individually for all switching devices and markings. Other internal com-
mands such as overriding or abort are not tested, i.e . are exe cute d independently of the interlockings.
Figure 2-33 Exa mple of an operational indica tion for switching circuit breaker (Q0)
Standard Interlocking (fixed-programmed)
The standard interlockings contain the following fixed programmed tests for each switching device, which can
be individually enabled or disabled using parameters:
• Switching direction check (scheduled = actual): The switching command is rejected, and an error indication
is displayed if the circuit breaker is already in the set position. If this check is enabled, then it applies whether
switch interlocking is activated or deactivated.
Type of Command Control C a us e Indication
Control issued Switching CO CO+/–
Manual tagging (positive / negative) Override MT MT+/–
Output blocking, Acquisition blocking Acquisition blocking ST ST+/– *)
Information status command, Output
blocking Output blocking OB OB+/– *)
Abort command Abort CA CA+/–
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Interlocking (Bay Interlocking)
Logic combinations deposited in the device using CFC are scanned and taken into consideration for interlocked
switching. Information to oth er bays can be processed as well (GOOSE or IRC).
• Blocked by protection: This interlocking option enabled for devices with integrated protection functions has
no significance and no effect on the 6MD66x device version.
• Double operation locking: Parallel switchings are mutually interlocked; when a switching is being processed
a second one cannot be executed.
• LOCAL switching authority: A switching command fr om the user interface of the device (comma nd with
command source LOCAL) is only allowed if the Key Switch (for devices without key switch via configuration)
is set to LOCAL.
• DIGSI switching authority: Switching commands that are issued locally or remotely via DIGSI (command
with command source DIGSI) are only allowed if the Key Switch (for devices without key switch via config-
uration) is set to REMOTE. If a DIGSI-PC communicates with the device, it deposits here its virtual device
number (VD). DIGSI must have the same virtual device number (with REMOTE switching authority). Switch
commands of the remote control are rejected.
• REMOTE switching authority: A remote control command (command with initiator source REMOTE) is only
allowed if the Key Switch (for devices without key switch via configuration) is set to REMOTE.
Figure 2-34 Standard interlocking s
1) Initiator source REMOTE also includes LOCAL. (LOCAL: Command via control system in the station, REMOTE:
Command via telecontrol station to power system management and from power system management to the device)
2) Release from testing of interlocking conditions
3) Not relevant for 6MD66x
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For devices with operator panel the display shows the configured interlocking reasons. They are marked by
letters explained in the followi ng table.
Table 2-13 Interlocking Commands
1) Not relevant for 6MD66x
Interlocking codes Command Display
Switching authority L L
System interlocking SI A
Zone Control Z Z
SET = ACTUAL (switch direction check) P P
Blocked by protection 1) B 1) B 1)
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The following figure shows all interlo cki ng conditions (which usually appear in the disp lay of the device) fo r
three switchgear items with the relevant abbreviations explained in the previous table. All parameterized inter-
locking conditions are indicated.
Figure 2-35 Example of configured interlocking conditions
Switching Authority (for devices with operator panel)
For selection of switching permission the interlock condition „switching au thority“ exists for selecting the
command sour ce wit h switchin g permission. For devices with operator panel, the following switching authority
ranges are defined in the following priority sequence:
•LOCAL
•DIGSI
•REMOTE
The object „Switching Authority“ serves to interlock or enable LOCAL control, but not REMOTE or DIGSI com-
mands. The 6MD66x is equipped with two key switches. The top switch is reserved for the switching authority .
The setting „L oca l “ pe rmi ts the local opera t ion, the setting „Rem ot e“ pe rmits the remote op e r at i on .
The object „Switching DIGSI“ serves to interlock or enable the operation via DIGSI. Commands are allowed for
both remote and a local DIGSI connection. When a (local or remote) DIGSI PC logs on to the device, it leaves
its V irtual Device Number (VD). Only commands with this VD (if switching authority = OFF or REMOTE) will be
accepted by the device. When the DIGSI PC logs off, the VD is removed.
Commands are checked for their source 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 DIGSI available: y/n (create appropriate object)
Specific object (e.g. switchi ng device): Switching authority LOCAL (check for local commands: y/n)
Specific objec t (e.g. switchi ng device): Switching authority REMOTE (check for LOCAL, REMOTE, or DIGSI
commands: y/n)
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Table 2-14 Interlocking logic
1) Also „allowed“ if: „Switching authority LOCAL (check fo r local commands): n“
2) Also „allowed“ if: „Switching author ity REMOTE (check for LOCAL, REMOTE, or DIGSI commands): n“
3) VQ = Source of command
SC = Auto SICAM:
Commands that are initiated internally (command processing in the CFC) are not subject to switching authority
and are therefore always „allowed“.
Switching Authority (for devices without operator panel)
The dongle cable sets the switching authority of the device to „REMOTE“. The specifica tio ns of the previous
section apply.
Switching mode (for devices with operation panel)
The switching mode determines whether selected interlocking conditions will be activated or deactivated at the
time of the switching operation.
The following switching modes (local) are defined:
• Local commands (SC=LOCAL)
– interlocked (normal), or
– non-interlocked switching.
The 6MD66x is equipped with two key switches . The bottom switch is reserved for the switching mode. The
„Normal“ position allows interlocked switching while the „Interlocking OFF“ position allows non-interlocked
switching.
The following switching modes (remote) are defined:
• For remote commands or commands from DIGSI (VQ=LOCAL, REMOTE or DIGSI)
– interlocked, or
– non-interlocked switching. Here de-interlocking occurs through a separate de-interlocking job. The posi-
tion of the key-switch is irrelevant.
– For commands from CFC (SC = AUTO SICAM), please observe the notes in the DIGSI CFC manual /3/
(block: BOOL after command).
Current Switching
Authori t y Status Switching
Authority
DIGSI
Command issued
with SC3)=LOCAL Command issued
from SC=LOCAL or
REMOTE
Command with
SC=DIGSI
LOCAL (ON) Not registered not allocate d Interlocke d 2) „inter-
locked because of
LOCAL control“
Interlocked
„DIGSI not logged
on“
LOCAL (ON) registered not allocated Interlocked 2) „inter-
locked because of
LOCAL control“
Interlocked 2) „in-
terlocked
because of
LOCAL control“
REMOTE (OFF) Not registered Interlocked
1)„Interlocked because
of REMOTE control “
not allocated Interlocked
„DIGSI not logged
on“
REMOTE (OFF) registered Interlocked
1)„Interlocked because
of DIGSI control “
Interlocked 2) „inter-
locked because of
DIGSI control“
not allocated
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Switching Mode (for devices without op erator panel)
The F-cable sets the switching authority of the device to „Normal“. The specifications of the previous section
apply.
Interlocks
Interlocks (e.g. via CFC) include the verification that predetermined switchgear position conditions are satisfied
to prevent switching errors (e.g. disconnector vs. earth electrode, earth electrode only if no voltage applied) as
well as verification of the state of other mechanical interlocking in the switchgear bay (e.g. High Voltage com-
partment doors).
Interlocking can be bay interlocking (all in formation is directly available in the bay controller) or substation in-
terlocking. In the latter case, the device receives information from adjacent bays over the inter-device commu-
nication (IDC) or IEC 61850 - GOOSE.
Interlocking co nd i tio ns ca n be pro g ra mme d se parately, for each switching device, for device control CLOSE
and/or OPEN.
Enable information with the data „switching device is interlocked (GON/NACT/FL T) or enabled (COM)“ can be
set up
• directly, using a single point or double point indication, key-switch, or internal indication (marking), or
• by means of control logic via CFC.
The current status is queried for a control command and updated cyclically. The assignment is don e via „Re-
lease object CLOSE/OPEN command“.
Double operation blocking
Parallel switching operations are interlocked. On arrival of a command all command objects are tested which
are also subject to the blockage, as to whether a command is current for them. While the command is being
executed, the block is in turn active for all other commands.
Device Status Check (setpoint = actual)
Switching commands are checked as to whether the selected switching device is already in the desired position
(set/actual comparison). This means that if a circuit breaker is already CLOSED and an attempt is made to send
a closing command, the command will be refused with the response "scheduled co ndition equals actual con-
dition". Switching device in intermediate position are not locked by the software.
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De-interlockings
De-interlockings can be bypassed to perform switching operations. This is either done internally by adding a
bypass code to the command, or globally by so-called switching modes.
•SC=LOCAL
– The switching modes "interlocked (latched)" or "non-interlocked (unl atched)" can be set via the key
switch. The position "Interlocking OFF" corresponds to non-interlocked switching and serves the special
purpose of unlocking the standard interlocks.
• REMOTE and DIGSI
– Commands from SICA M or DI GSI are u nlo cke d vi a th e gl o b al switching mode REMOT E. A separate
request must be sent for the unlocking. The unlocking applies only for one switching operation and only
for commands caused by the same source.
– Job: command to object "Switching mode REMOT E ", ON
– Job: switching command to "switching device"
• Derived command via CFC (automatic command, SC=Auto SICAM):
– The behaviour is configured in the CFC block ("BOOL to command").
2.8.2 Information overview
No. Information Type of
Information Explanation
— KeySwitch1 DP Key-operated switch (local/remote)
— Cntrl Auth IE Control authority (derived from the position of the top key-
operated switch.
Meaning: local/remote toggling of switching mode.)
— KeySwitch2 DP Key-operated switch (unlocked/locked)
— Mode LOCAL IE Switching mode Local (set by the device if the bottom
key-operated switch is set to unlocked.
Meaning: Unlocked local switching is possible; remote
commands are still executed locked.)
— Mode REMOTE IE Switching mode Remote (Set by the system interface. If
this flag has been set, remote switching commands to the
bay controller are carried out unlocked. Commands initi-
ated locally on the bay controller remain locked. Corre-
sponds to the function S1-Fe rn of the 8TK switchgear in-
terlocking system.)
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2.9 Circuit breaker failure protection (optional)
The circuit breaker failure protection provides rapid back-up fault clearance, in the event that the local circuit
breaker fails to respond to a trip command from a protective device.
2.9.1 Function Description
General Remarks on Circuit breaker Failure Protection and Automatic Reclosure
The two functions circuit breaker failure protection (described in this chapter) and automatic reclosure (see
Chapter 2.10) are available with software version V4.6.
Integrating these protection functions into a bay controller is useful for applications in which two circuit breakers
are assigned to one feeder as it allows to do without ex tra equipment. Circuit breaker failure protection and
automatic reclosure are order options, refer to the Appendix A.1.
An exemplary configuration showing the possible use of CB failure protection and automatic reclosure in the
6MD66x is shown in the figure below. Another possible confi guration would be the one-and-one-hal f circuit
breakers method.
Figure 2-36 Feeder with two circuit breaker s, simplified
Although the line protection function, in this example a 7SA distance protection, could provide automatic reclo-
sure for both circuit breakers, this would require a highly complex logic of the CFC for the 7SA. As to breaker
failure protection, the distance protection relay would not be able to perform it in this configuration because it
works with a summa ti on current. Integrati n g th ese two functions into the 6MD66x bay controller therefore
allows to do without extra equipment and makes engineering easier.
As a special feature in comparison with pure protection devices, the current measuring inputs of the bay con-
troller are connected with the instrument transformers in the substation, not with the protection transformers.
This ensures the high measuring accuracy of 0.5% of the nominal value. However , the instrument transformers
are more or less subject to saturation when a fault current passes through them. Measurement of the fault
current is therefore not possible. However, detection and switch-off of the fault current is possible for the CB
failure protection function. A type 0.5 FS 5 transformer should be used as primary transformer.
In order to simplify external wiring of the device, the 6MD66x bay controllers version V4.6 or higher have new
command types which are capable of 3-pole control of the protection devices. These commands have the fol-
lowing names in the DIGSI Information catalog:
• BR_D31 3-pole trip, 1-pole close
• BR_D33 3-pole trip and 3-pole close
• BR_D44 3-pole trip and close with common contact.
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The allocation of the trip and close signals to the relay contacts for the new commands in the DIGSI configura-
tion matrix is shown in the figure below.
Figure 2-37 Routing of the new command types in the DIGSI matrix
The use one of these command types makes it sufficient to connect the circuit breaker exactly once to the
control device . Th e 3 -pole control makes it possible for the protective funtion to use the same relays. I.e. the
circuit breaker is wired as 3-pole relay to the control device and both the protective function (breaker failure
protection or AR) and the control function are allocated to the same relays in the configuration matrix. However,
the feedbacks are to be allocated, as before, as double-point indications to the command and if required as 1-
pole ones to the protective function.
General
Whenever, e.g. a short-circuit protection relay of a feeder issues a trip command to the circuit breaker, this is
repeated to the breaker failure protection (Figure 2-38). A timer T–BF in the breaker failure protection is started.
The timer runs as long as a trip command is present and current continues to flow through the breaker poles.
Figure 2-38 Simplified function diag ram of circuit breake r failure protection with current flow monitoring
Normally, the breaker will open and interrupt the fault current. The current monitoring stage quickly resets (typ-
ical >10 ms) and stops the timer T–BF.
If the trip co mmand is not carrie d out (circuit brea ker failure case), current continues to flow and the timer runs
to its set limit. The circuit breaker failure protection then issues a command to trip the backup circuit breakers
and interrupt the fault current.
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The reset time of the feeder protection is not relevant because the circuit breaker failure protection itself rec-
ognizes the interruption of the current.
For protective functions where the tripping criterion is not dependent on current (e.g. Buchholz protection),
current flow is not a reliable criterion for proper operation of the breaker. In such cases, the circuit breaker po-
sition can be derived from the auxiliary contacts of the breaker. Therefore, instead of monitoring the current,
the condition of the auxiliary contacts is monitored (see Figure 2-39). For this purp ose, the outp uts from the
auxiliary contacts must be fed to binary inputs on the relay (refer also to Section 2.11).
Figure 2-39 Simplified function diagram of circuit breaker failure protection controlled by circuit breaker aux-
iliary contact
Current flow monitoring
Each of the phase currents and an additional plausibility current (see below) are filtered by numerical filter al-
gorithms so that only the fundamental component is used for further evaluation.
Special measures are taken in order to detect a current interruption. In case of sinusoidal currents the current
interruption is detected after approximately 10 ms. With aperiodic DC current comp onents in the fault current
and/or in the current transformer secondary circuit after interruption (e.g. current transformers with linearized
core), or saturation of the current transformers caused by the DC component in the fault current, it can take
one AC cycle before the interruption of the primary current is reliably detected. This is generally the case in the
6MD66x because the device, in order to achieve the required measuring accuracy, is connected to the instru-
ment transformers, and not to the protection transformers.
The detection of a current disconnection stops the delay times after which a trip command is issued. The pickup
signal is not reset until disconnectio n has been reliably detected.
The currents are monitored and compared with the set threshold. Besides the three phase currents, two further
current detectors are provided in order to allow a plausibility check (see Figure 2-40).
As plausibility current, the earth current IE (3·I0) is preferably used. If the earth current is not available, the
device calculates it with the formula:
3·I0 = IL1 + IL2 + IL3
Additionally , the value calculated by 6MD66x of three times the negative sequence current 3·I2 is used for plau-
sibility check. This is calculated according to the equation:
3·I2 = IL1 + a2·IL2 + a·IL3
where
a = ej120°.
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These plausibility currents do not have any direct influence on the basic functionality of the circuit breaker
failure protection but they allow a plausi bility check in that at least two current thresholds must have been ex-
ceeded before any of the circuit breaker failure delay times can be started, thus providing high security against
false operation.
Figure 2-40 Current flow monitoring with plausibility currents 3·I0 and 3·I2
The design of the current transformers must ensure at least that even with maximum saturation the secondary
current is above the limit threshold of the measuring inputs for at least 3 milliseconds per half-cycle. The limit
threshold depends on the board typ e and can be 1.2 or 1.5 time the nominal current.
Processing of the Circuit Breaker Auxiliary Contacts
The position of the circuit breaker is derived from the central function control of the device (refer also to Section
2.11). Evaluation of the breaker auxiliary contacts is carried out in the breaker failure protective function only
when the current flow monitoring I> BF has not picked up. Once the current flow criterion has picked up during
the trip signal from the feeder protection, the circuit breaker is assumed to be open as soon as the current dis-
appears, even if the associated auxiliary contact does not (yet) indicate that the circuit breaker has opened (see
Figure 2-41). This gives preference to the more reliable current criterion and avoids false operation due to a
defect, e.g. in the auxiliary contact mechanism or circuit. This interlock feature is provided for each individual
phase as well as for 3-pole trip.
It is possible to disable the auxiliary contact criterion. If you set the parameter switch Chk BRK CONTACT
(Figure 2-43 top) to NO, the breaker failure protection can only be started when current flow is detected. The
position of the auxiliary contacts is then not evaluated even if the auxiliary contacts are connected to the device.
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Figure 2-41 Interlock of the auxiliary contact criterion - example for phase L1
1) if phase-segregated auxiliary contacts are available
2) if series-connected NC contacts are available
On the other hand, current flow is not a reliable criterion for proper operatio n of the circuit breaker for faults
which do not cause detectable current flow (e.g. Buchholz protection). Information regarding the position of the
circuit breaker auxiliary contacts is required in these cases to check the correct response of the circuit breaker .
For this purpose, the binary input „>BF Start w/o I“ No. 1439 is provided (Figure 2-43 left). This input
initiates the breaker failur e protection even if no current flow is detected.
Common phase initiation
Common phase initiation is used, for example, in systems with only 3-pole tripping, for transformer feeders, or
if the busbar protection trips. It is the only available initiation mode when using the 6MD66x version capable of
3-pole tripping only.
If the circuit bre aker failure p rotec tion is i ntende d to be ini tiate d by furth er extern al prot ection device s, it is rec-
ommended, for security reasons, to connect two binary inputs to the device. Besides the trip command of the
external protection to the binary input „>BF Start 3pole“ no. 1415 it is recommended to connect also the
general device pickup to binary input „>BF release“ no. 1432. For Buchholz protection it is recommended
that both inputs are connected to the device by two separate wire pairs.
Nevertheless, it is possible to initiate the circuit breaker failure protection in single-channel mode should a sep-
arate release criterion not be available. The bi nary input „>BF release“ (No. 1432) must then not be as-
signed to any physical input of the device during configuratio n.
Figure 2-43 sh ows the operatin g principle. When th e trip signal appears from a protective function and at least
one current flow criterion (according to Figure 2-40) is present, the breaker failure protection is initiated and the
corresponding delay time(s) is (are) started.
If the current criterion is not fulfilled for any of the phases, the position of the circuit breaker auxil iary contact
can be queried as shown in Figure 2-42. If the circuit breaker poles have individual auxiliary contacts, the series
connection of the three normally closed (NC) auxiliary contacts is used. After a 3-pole trip command the circuit
breaker has only operated correctly if no current is flowing via any phase or alternatively all three auxiliary con-
tacts indicate the CB is open.
Figure 2-42 illustrates how the internal signal "CB pole „L1 closed“ is created (see Figure 2-43 left) if at least
one circuit breaker pole is closed.
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Figure 2-42 Creation of sign al "CB ≥ any pole closed"
If all three binary inputs >LS Pos.Ein Lx are configured, the device dispenses with a 3-pole check of „>CB 3p
Closed“ and „>CB 3p Open“.
If an internal protection function or an external prote ction device trips without current flow, the circuit breaker
failure protection is initiated by the internal input „Start internal w/o I“, if the trip signal comes from the internal
voltage protection or frequency protection, or by the external input „>BF Start w/o I“. In this case the st art
signal is maintained until the circuit breaker is reported to be open by the auxiliary contact criterion.
Initiation can be blocked via the bin ary input „>BLOCK BkrFail“ (e.g. during test of the feeder protection
relay).
Figure 2-43 Breaker failure protection with common phase initiation
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Phase segregated initiation
Phase segregated initiation of the circuit breaker failure protection is necessary if the circuit breaker poles are
operated individually, e.g. if 1-pole automatic reclosure is used. This is possible if the device is able to trip 1-
pole.
If the circuit bre aker failure p rotec tion is i ntende d to be ini tiate d by furth er extern al prot ection device s, it is rec-
ommended, for security reasons, to connect two binary inputs to the device. Besides th e three trip co mmands
of the external relay to the binary input „>BF Start L1“, „>BF Start L2“ and „>BF Start L3“ it is
recommended to connect also, for example, the general device pickup to binary input „>BF release“. Figure
2-44 shows this connection.
Nevertheless, it is possible to initiate the circuit breaker failure protection in single-channel mode should a sep-
arate release criterion not be available. The bi nary input „>BF release“ must then not be assigned to any
physical input of the device during configuration.
If the external protection device doe s not provide a general fault detection signal , a general trip signal can be
used instead. Alternatively , the parallel connection of a separate set of trip contacts can produce such a release
signal as shown in Figure 2-45.
The starting condition logic for the delay times is shown in Figure 2-46. In principle, it is designed similar to that
for the common phase initiation, but, individually for each of the three phases. Thus, current flow and initiation
conditions are processed for each phase. In case of 1-pole interruption before an automatic reclose cycle,
current disappearance is reliably monitored for the tripped breaker pole only.
Figure 2-44 Breaker failure protection with phase segregated initiation — example for initiation by an
external protection device with release by a fault detection signal
Figure 2-45 Breaker failure protection with phase segregated initiation — example for initiation by an
external protection device with release by a separate set of trip contacts
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The starting condition logic for the delay times is shown in Figure 2-41. In principle, it is designed similar to that
for the common phase initiation, but, individually for each of the three phases. Thus, current flow and initiation
conditions are processed for each phase. In case of 1-pole interruption before an automatic reclose cycle,
current disappearance is reliably monitored for the tripped breaker pole only.
The auxiliary contact criterion is also processed for each individual circuit breaker pole. If, however, the circuit
breaker auxiliary contacts are not available for each individual circuit breaker pole, then a 1-pole trip command
is assumed to be executed only if the series connection of the no rmally open (NO) auxiliary contacts is inter-
rupted. This i nformation is provid ed to the circuit brea ker failure protection by the central function control o f the
device (refer to Section 2.11).
The 3-phase starting signal „Start L123“ is generated if there are start signals for more than one phase. The
input "BF S tart w/o I" (e.g. from Buchholz protection) operates only in 3-phase mode. The function is the same
as with common phase initiation.
The additional release-signal „>BF release“ (if assigned to a binary input) affects all external initiation con-
ditions. Initiation can be blocked via the binary input „>BLOCK BkrFail“ (e.g. during test of the feeder pro-
tection relay).
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Figure 2-46 Initiation conditions with 1-pole trip command
Delay Times
When the initiatiation conditions are fulfilled, the associated timers are st arted. The circuit breaker pole(s) must
open before the associated time has elapsed.
Different delay times are possible for 1-pole and 3-pole initiation. An additional delay time can be used for two-
stage circuit breaker failure protec tion.
With single-stage breaker failure protection, the trip command is routed to the adjacent circuit breakers should
the local feeder breaker fail (refer to Figure 2-38 or 2-39). The adjacent circuit breakers are all those which must
trip in order to interrupt the fault current, i.e. the breakers which feed the bus-bar or the bus-bar section to which
the feeder under consideration is connected. The possible initiation conditions for the breaker failure protection
are those discussed above. Depending on the application of the feeder protection, common phase or phase
segregated initiation cond itions may occur. Tripping by the breaker failure protection is always 3-pole.
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The simplest solution is to start the delay timer T2 (Figure 2-47). The phase-se gregated initiation signals are
omitted if the feeder protection always trips 3-pole or if the circuit breaker is not capable of 1-pole tripping.
If different delay times are required after a 1-pole trip or 3-pole trip it is possible to use the timer stages T1-
1pole and T1-3pole according to Figure 2-48.
Figure 2-47 Si ngle-stage breaker failure protection with common phase initiation
Figure 2-48 Si ngle-stage breaker failure protection with different delay times
With two-stage circuit breaker failure protection the trip command of the feeder protection is usually repeated,
after a first time stage, to the feeder circuit breaker, of ten via a second trip coil or set of trip coils, if the circuit
breaker has not responded to the origin al trip command. A second time stage monitors the response to this
repeated trip command and trips the circuit breakers of the relevant busbar section if the fault has not yet been
cleared after this second time.
For the first time stage, a different time delay T1-1pole can be selected for a 1-pole trip than for a 3-pole trip
by the feeder protection. Additionally, you can select (by setting parameter 1p-RETRIP (T1)) whether this
repeated trip should be 1-pole or 3-pol e.
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Figure 2-49 Two-stage breaker failure protection with phase segregated initiation
Circuit Breaker not Operational
There may be cases when it is already obvious that the circuit breaker associated with a feeder protection relay
cannot clear a fault, e.g. when the tripping voltage or the tripping energy is not available.
In such a case it is not necessary to wait for the response of th e feeder circuit breaker. If provision has been
made for the detection of such a condition (e.g. control voltage monitor or air pressure monitor), the monitor
alarm signal can be fed to the binary input „>CB faulty“ of the 6MD66x. On occurrence of this alarm and
a trip command by the feeder protection, a separate timer T3-BkrDefective, which is normally set to 0, is
started (Figure 2-50). Thus, the adjacent circuit breakers (bus-bar) are tripped immediately in case the feeder
circuit breaker is not operational.
With Bkr Defecti ve yo u ca n set which of the regula r time delays T1 and T2 of the break er failure protection, if
any, are to be used in the case of a circuit breaker malfunction.
Figure 2-50 Circuit breaker faulty
Transfer trip to the remote end circuit breaker
The device has the facility to provide an additional in tertrip signal to the circuit breaker at the remote line end
in the event that the local feeder circuit breaker fails. For this, a suitable protection signal transmission link is
required (e.g. via communication cable, power line carrier transmission, ra dio transmission, or optical fibre
transmission). With devices using digital transmission via protection interface, the remote commands can be
applied.
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To realise this intertrip, the desired command — usually the trip command which is intended to trip the adjacent
circuit breakers — is assigned to a binary output of the device. The contact of this output triggers the transmis-
sion device. When using digital signal transmission, the command is connected to a remote command via the
user-defined logic (CFC).
End Fault Protection
An end fault is defined here as a short–circuit which has occurred at the end of a line or protected object,
between the circuit breaker and the current transformer set.
Figure 2-51 shows the situation. The fault is located — as seen from the current transformer (= measurement
location) — on the busbar side, it will thus not be regarded as a feeder fault by th e feeder protection relay. It
can only be detected by either a reverse stage of the feeder protection or by the busbar protection. However,
a trip command given to the feeder circuit breaker does not clear the fault since the opposite end continues to
feed the fault. Thus, the fault current does not stop flowing even though the feeder circuit breaker has properly
responded to the trip command.
Figure 2-51 End fault between circuit breaker and current transforme rs
The end fault protection has the task to recognize this situation and to transmit a trip signal to the remote end(s)
of the protected object to clear the fault. For this purpose, the output command „BF EndFlt TRIP“ is avail-
able to trigger a signal transmission device (e.g. power line carrier , radio wave, or optical fibre) — if applicable,
together with other commands that need to be transferred or (when using digital signal transmission) as
command via the pr otection dat a interface.
The end fault protection detects an end fault because it registers that current is flowing even though the circuit-
breaker auxiliary contacts signal that the circuit-breaker is open. Figure 2-52 shows the functional principle. If
current flow is detected (current criterion „L*>“ according to figure 2-40) but no circuit-breaker pole is closed
(auxiliary contact criterion „ ≥1 pole closed“ is not active), the timer T-EndFault is started, and after time-out
a trip command is sent to the opposite end.
Figure 2-52 Functional scheme of the end fault protection
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Pole Discrepancy Supervision
The pole discrepancy supervision has the task to detect discrepancies in the position of the three circuit breaker
poles. Under steady-state operating conditions, either all three poles of the circuit breaker must be closed, or
all three poles must be open. Discrepancy is permitted only for a short time interval during a 1-pole automatic
reclose cycle.
The scheme functionality is shown in Figure 2-53. The signals which are processed here are the same as those
used for the circuit breaker failure protection. The pole discrepancy condition is established when at least one
pole is closed („ ≥ one pole closed“) and at the same time not all three poles are closed („ ≥ one pole open“).
Additionally , the current criteria (from Figure 2-40) are processed. Pole discrepancy can only be detected when
current is not flowing through all three poles (<3), i.e. through only one or two poles. When current is flowing
through all three poles, all three poles must be closed even if the breaker auxiliary contacts indicate a different
status.
If pole discrepancy is detected, this is indicated by a fault detection signal. This signal identifies the pole which
was open before the trip command of the pole discrepancy supervision occurred.
Figure 2-53 Function diagram of pole discrepancy supervision
Flash-Over Protection (FOP)
When the circuit breaker is open, the flashover protection detects a loss of insulation in the circuit breaker. To
do so, the circuit breaker auxiliary contacts, the three phase currents, the three phase voltages and the circuit
breaker switching commands are all monitored.
Flashover can occur if:
• The insulation medium in the circuit breaker fails.
• The voltage difference at the circuit breaker exceeds its specified insulation voltage.
The flashover protection generates two indications/commands:
• „Flashover suspected“: Allows to repeat the trip command to the breaker in order to switch selectively the
circuit breaker concerned, e.g. in the case of a breaker auxiliary contact failure.
• „Breaker failure FOP“: This command opens the higher-level circuit breakers and the remote end circuit
breakers, as in conventional breaker failure protection.
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Figure 2-54 Operation scheme of the flashover protection
The phase-to-earth voltage is monitored to ensure that the flashover protection picks up only if at least 80 per
cent of the nominal voltage are or were available for up to 100 ms prior to current measurement. If the current
exceeds the set threshold I> BF (set in address 3902), the current measurement detects a breaker failure.
The auxiliary contact signals of the individual breaker poles >LS Pos.Ein Lx indicate that the respective
breaker pole is open. Since the auxiliary contacts are of decisive importance for the operation of the flashover
protection, this protection can only pick up if >LS Pos.Ein Lx is also allocated to binary inputs.
In order to avoid spurious pickup of the flashover protection when switchi ng the circuit breaker, the switching
commands are also registered and used to block the flashover protection. These include:
• The binary inputs „>BF Start L1“, „>BF Start L2“ and „>BF Start L3“ (address 1435,1436 and
1437) for the phases. if this binary input signal is active, an external protection device opens the associated
breaker pole.
• Binary input „>BF Start 3pole“. if this binary input signal is active, an external protection device opens
all three breaker poles.
• The binary signal >ManClose, if the circuit breaker is closed manuall y.
• The internal commands „AR CLOSE command“ or „AR forced 3-pole trip“, generated by the 6MD66x's au-
tomatic reclosure function .
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CT Allocation
The allocation of the current transformers to the phase currents required for the breaker failure protection func-
tion is checked (MVChn Ix). If not all three current transformers have a phase current allocated to it, the plau-
sibility check detects an error and outputs an alarm to that effect. If the flashover protection (FO Protection
in address 3940) is active, the plausibility check for transformer allocation comprises the voltage transformers
as well (MVChn Ux).
This functi on is on ly effective if it is switch ed on , not blocked, and the transformer allocation is OK. This state
is shown by the indication BF effective.
The parameter 3911 Plausib. check is used to switch the plausibility check fo r transformer allocation in
special cases, e.g. if only 1-pole breaker failure protec tion is required for protecting a reactor.
Connection Examples
Unlike SIPROTEC protection devices, where the allocation of the measuring transducers to the measured
quantities is always fixed, the measured quantities in the 6MD66x can be freely allocated to the individual func-
tion blocks. Allocation is performed by linking in the DIGSI configuration matrix a column (for the transformer)
with a line (for the currents).
Connection examples and a sample configuration for the measuring inputs, trip commands and auxiliary con-
tacts is provided in the Appendix.
2.9.2 Setting Notes
General
The breaker failure protection and its ancillary functions (end fault protection, pole discrepancy supervision and
flashover protection) can only operate if they were configured Enabled during configuration of the scope of
functions (address 139 BREAKER FAILURE).
Circuit breaker failure protection
The circuit breaker failure protection is switched ON or OFF at address 3901 FCT BreakerFail.
The current threshold I> BF (address 3902) should be selected such that the protection will operate with the
smallest expected short-circuit current. A setting of 10 % below the minimum fault current for which circuit
breaker failure protection must operate is recommended. On the other hand, the value should not be set lower
than necessary.
If the circuit breaker failure protection is configured with zero sequence current threshold (address 139 = ), the
pickup threshold for the zero sequence current 3I0> BF (address 3912) can be set independently of I> BF.
Normally, the circuit breaker failure protection evaluates the current flow criterion as well as the position of the
circuit breaker auxiliary contact(s). If the auxiliary contact(s) st atus is not available in the device, this criterion
cannot be processed. In this case, set address 3909 Chk BRK CONTACT to NO.
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Two-stage Breaker Failure Protection
With two-stage operation, the trip command is repeated after a time delay T1 to the local feeder breaker, nor-
mally to a different set of trip coils of this breaker . A choice can be made whether this trip repetition shall be 1-
pole or 3-pole if the initial trip of the external protection device was 1-pole (provided 1-pole trip is possible). This
choice is made in parameter 1p-RETRIP (T1). Set this parameter to YES if you wish 1-pole trip for the first
stage, otherwise to NO.
If the circuit breaker does not respond to this trip repetition, the adjacent circuit breakers are tripped after T2,
i.e. the circuit breakers of the busbar or of the concerned busbar section and, if necessary, also the circuit
breaker at the remote end unless the fault has been cleared.
Separate delay times can be set
• for 1- or 3-pole trip repetition to the local feeder circuit breaker after a 1-pole trip of the feeder protection T1-
1pole at address 3904,
• for 3-pole trip repetition to the local feeder circuit breaker after 3-pole trip of the feeder protection T1-3pole
(address 3905),
• for trip of the adjacent circuit breakers (busbar zone and remote end if applicable) T2 at address 3906.
The delay times are determined from the maximum operating time of the feeder circuit breaker, the reset time
of the current detectors of the breaker failure protection, plus a safety margin which allows for any tolerance of
the delay timers. The time sequence is illustrated in Figure 2-55. The dropout time for sinusoidal currents is ≤
15 ms. If current transformer saturation is anticipated, the time should be set to 25 ms.
Figure 2-55 Time sequence example for normal clearance of a fault, and with circuit breaker failure, using
two-stage breaker failure protection
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Single-stage Breaker Failure Protection
With single-stage operation, the adjacent circuit breakers (i.e. the circuit breakers of the busbar zone and, if
applicable, the circuit breaker at the remote end) are tripped after a delay time T2 (address 3906) should the
fault not have been cleared within this time.
The timers T1-1pole (address 3904) and T1-3pole (address 3905) are then set to ∞ since they are not
needed.
You can also use the first stage alone if you wish to use different delay times after 1-pole and 3-pole tripping of
the feeder protection. In this case set T1-1pole (address 3904) and T1-3pole (address 3905) separately,
but address 3903 1p-RETRIP (T1) to NO to avoid a 1-pole trip command to the busbar. Set T2 (address
3906) to ∞ or equal to T1-3pole (address 3905). Be sure that the correct trip commands are assigned to the
desired trip relay(s).
The delay times are determined from the maximum operating time of the feeder circuit breaker, the reset time
of the current detectors of the breaker failure protection, plus a safety margin which allows for any tolerance of
the delay timers. The time sequence is illustrated in Figure 2-56. The dropout time for sinusoidal currents is ≤
15 ms. If current transformer saturat ion is anticipated, the time should be set to 25 ms.
Figure 2-56 Time sequence example for normal clearance of a fault, and with circuit breaker failure, using
single-stage breaker failure protection
Circuit breaker not operational
These delays are not necessary if the control circuit of the local circuit breaker is faulted (e.g. control voltage
failure or air pressure failure) since it is apparent that the circuit breaker is not capable of clearning the fault. If
the relay is informed about this disturbance (via the binary input „>CB faulty“), the adjacent circuit breakers
(busbar and remote end if applicable) are tripped after the time T3-BkrDefective (address 3907) which is
usually set to 0.
Address 3908 Trip BkrDefect. determines to which output the trip command is routed in the event that the
circuit breaker is not operational when a feeder protection trip occurs. Select that output which is used to trip
the adjacent circuit breakers (bus-bar trip).
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End fault protection
The end fault protection can be switched separately ON or OFF in address 3921 End Flt. stage. An end
fault is a short-circuit between the circuit breaker and the current transformer set of the feeder. The end fault
protection presumes that the device is informed about the circuit breaker position via circuit breaker auxiliary
contacts connected to binary inputs.
If, during an end fault, the circuit breaker is tripped by a reverse stage of the feeder protection or by the busbar
protection (the fault is a busbar fault as determined fro m the location of the current transformers), the fault
current will continue to flow, because the fault is fed from the remote end of the feeder ci rcuit.
The time T-EndFault (address 3922) is started when, during the time of pickup condi tion of the feeder pro-
tection, the circuit breaker auxiliary contacts indicate open poles and, at the same time, current flow is still de-
tected (address 3902). T he trip command of the end fault protection is intended for the transmission of an in-
tertrip signal to the remote end circuit breaker.
Thus, the delay time must be set so that it can bridge out short transient apparent end fault conditions which
may occur during switching of the circuit breaker.
Pole discrepancy supervision
In address 3931 PoleDiscrepancy (pole discrepancy protection), the pole discrepancy supervision can be
switched separately ON or OFF. It is only useful if the circuit breaker poles can be operated individually . It avoids
that only one or two poles of the local circuit breaker are open continuously . It has to be provided that either the
auxiliary contacts of each pole or the series connection of the NO auxiliary contacts and the series connection
of the NC auxiliary contacts are connected to the device's binary inputs. If these conditions are not fulfilled,
switch address 3931 OFF.
The delay time T-PoleDiscrep. (address 3932) indicates how long a circuit breaker pole discrepancy con-
dition of the feeder circuit breaker , i.e. only one or two poles open, may be present before the pole discrepancy
supervision issues a 3-pole trip command. This time must be clearly longer than the duration of a 1-pole auto-
matic reclose cycle. The time should be less than the permissible duration of an unbalanced load condition
which is caused by the unsymmetrical position of the circuit breaker poles. Conventional values are 2 s to 5 s.
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2.9.3 Settings
Addr. Parameter Setting Options Default Setting Comment s
3901 FCT BreakerFail ON
OFF OFF Breaker Failure Protection is
3902 I> BF 0.05 .. 1.20 A 0.10 A Pick-up threshold I>
3903 1p-RETRIP (T1) NO
YES YES 1pole retrip with stage T1 (local
trip)
3904 T1-1pole 0.00 .. 30.00 sec; ∞0.00 sec T1, Delay after 1pole start (local
trip)
3905 T1-3pole 0.00 .. 30.00 sec; ∞0.00 sec T1, Delay after 3pole start (local
trip)
3906 T2 0.00 .. 30.00 sec; ∞0.15 sec T2, Delay of 2nd stage (busbar
trip)
3907 T3-BkrDefective 0.00 .. 30.00 sec; ∞0.00 sec T3, Delay for start with defective
bkr.
3908 Trip BkrDefect. NO
with T1-trip
with T2-trip
w/ T1/T2-trip
NO Trip output selection with defec-
tive bkr
3909 Chk BRK CONTACT NO
YES YES Check Breaker contacts
3911 Plausib. check YES
NO YES plausibility check transformer
masking
3912 3I0> BF 0.05 .. 1.20 A 0.10 A Pick-up threshold 3I0>
3921 End Flt. stage ON
OFF OFF End fault stage is
3922 T-EndFault 0.00 .. 30.00 sec; ∞2.00 sec Trip delay of end fault stage
3931 PoleDiscrepancy ON
OFF OFF Pole Discrepancy supervision
3932 T-PoleDiscrep. 0.00 .. 30.00 sec; ∞2.00 sec Trip delay with pole discrepancy
3940 FO Protection ON
OFF OFF Flash Over Protection
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2.9.4 Information List
No. Information Type of In-
formation Comments
1401 >BF on SP >BF: Switch on breaker fail protection
1402 >BF off SP >BF: Switch off breaker fail protection
1403 >BLOCK BkrFail SP >BLOCK Breaker failure
1415 >BF Start 3pole SP >BF: External start 3pole
1432 >BF release SP >BF: External release
1435 >BF Start L1 SP >BF: External start L1
1436 >BF Start L2 SP >BF: External start L2
1437 >BF Start L3 SP >BF: External start L3
1439 >BF Start w/o I SP >BF: External start 3pole (w/o current)
1440 BkrFailON/offBI IntSP Breaker failure prot. ON/OFF via BI
1451 BkrFail OFF OUT Breaker failure is switched OFF
1452 BkrFail BLOCK OUT Breaker failure is BLOCKED
1453 BkrFail ACTIVE OUT Breaker failure is ACTIVE
1454 BF Mask. Error OUT Breaker fail. masking error curr. transf
1459 BF EndFlt PU OUT BF Pickup End fault stage
1461 BF Start OUT Breaker failure protection started
1472 BF T1-TRIP 1pL1 OUT BF Trip T1 (local trip) - only phase L1
1473 BF T1-TRIP 1pL2 OUT BF Trip T1 (local trip) - only phase L2
1474 BF T1-TRIP 1pL3 OUT BF Trip T1 (local trip) - only phase L3
1476 BF T1-TRIP L123 OUT BF Trip T1 (local trip) - 3pole
1489 BF Flash Over OUT BF Flash Over
1490 BF FO TRIP OUT BF Flash Over Trip
1493 BF TRIP CBdefec OUT BF Trip in case of defective CB
1494 BF T2-TRIP(bus) OUT BF TRIP T2 (busbar trip)
1495 BF EndFlt TRIP OUT BF Trip End fault stage
1496 BF CBdiscrSTART OUT BF Pole discrepancy pickup
1497 BF CBdiscr L1 OUT BF Pole discrepancy pickup L1
1498 BF CBdiscr L2 OUT BF Pole discrepancy pickup L2
1499 BF CBdiscr L3 OUT BF Pole discrepancy pickup L3
1500 BF CBdiscr TRIP OUT BF Pole discrepancy Trip
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2.10 Automatic reclosure function (optional)
Experience shows that about 85% of the arc faults on overhead lines are extinguished automatically after being
tripped by the protection. The line can therefore be re-energised. Reclosure is performed by an automatic
reclose function (AR).
Automatic reclosure function is only permitted on overhead lines because the possibility of extinguishing a fault
arc automatically only exists there. It must not be used in any other case. If the protected object consists of a
mixture of overhead lines and other equipment (e.g. overhead line in block with a tra nsformer or overhead
line/cable), it must be ensured that reclosure can only be performed in the event of a fault on the overhead line.
If the circuit breaker poles can be operated individually, a 1-pole automatic reclosure is usually initiated in the
case of 1-phase faults and a 3-pole automatic reclosure in the case of multi-phase faults in the network with
earthed system star point. If the fault still exists after reclosure (arc not extinguished or met allic short-circuit),
the protection issues a final trip. In some systems several reclosing attempts are performed.
The integrated automatic reclosure function of the 6MD66x device is controlled by an external protection.
Signals between the 6MD66x and the protection device are exchanged through the binary inputs and outputs.
If both devices have an IEC61850 interface, information can also be exchanged through the GOOSE mecha-
nism. The automatic reclosure function contained in this device is an optional one (MLFB-dependent).
2.10.1 Function Description
The auto-reclose function is initiated by a trip command from a feeder protection. This functionality is presented
in detail in the figure and description below.
Figure 2-57 Example application of AR functions
A typical reclosure operation proceeds as follows. The feeder protection picks up because of a network fault,
and after expiry of the tripping delay outputs a trip command that opens the connected circuit breaker and dis-
connects the feeder from the infeed.
The pickup and trip signals are transmitted to the 6MD66x through binary inputs. After expiry of a dead time,
the device outputs a close command to the circuit breaker to reconnect the faulted feeder.
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The isolation of the line from voltage often results in extinction of the electric arc caused by the network fault,
so that after the reclosure the feeder protection no lo nger detects a fault. The reclosure wa s in that case suc-
cessful.
In cases where the fault is not yet eliminated after reclosing the circuit breaker, this cycle may be repeated
several times. The figure below shows a case where the network fault is not cleared until the second trip com-
mand.
The action times and blocking times, which are also shown in the figure, serve for the control of the AR function
and can be adapted to the local ne twork conditions by parameter settings. This is describ ed in more detail
farther below.
The indication AR in progress is generated by the AR for the duration of all AR cycles.
Figure 2-58 Example of a chronological sequence of a double reclosure operation
The integrated automatic reclosure function allows up to 8 reclosure attempt s. The number of reclosing cycles
is set in DIGSI under "Functional Scope - Auto matic Reclosing (No. 133)". T he first four interrupt cycles can
operate with different parameters (action and dead times, 1/3-pole). The parameters of the fourth cycle also
apply for the fifth cycle and onwards.
Connection of the Measured Voltages
The automatic reclose function is provided with optional control modes that use the phase-to-earth voltages of
the protected feeder as input quantities. Unlike SIPROTEC protection devices, where the allocation of the mea-
suring transducers to the measured quantities is always fixed, the measured quantities in the 6MD66x can be
freely allocated. This is done with the phase-to-earth voltages in the automatic reclose function. They are allo-
cated by linking in the DIGSI configuration matrix each column representing a transducer with a line represent-
ing the voltage „Input U1“ ... .
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Figure 2-59 Allocation of voltage inputs for the automatic reclosure function
In case automatic reclosure functions depending on the voltage values are enabled, a plausibility check is con-
ducted which examines whether a voltage transformer is assigned to each voltage input of the automatic re-
closing. If this is not the case, the automatic reclosure function is indicated as ineffective and the „AR Mask.
Error“ alarm indication is output.
Circuit Breaker Commands
Basically, the automatic reclose function can output two types of commands to a circuit brea ker: a 3-pole trip
command (forced 3-pole trip), and a 3-pole close command. Commands are output through the output relays
provided in the 6MD66x.
The procedure of assigning the circuit breaker to the automatic reclosure function is based on entering close
and trip command indications in a circuit breaker object as state. The choice of the circuit breaker object can
be made using the Cmd.via control parameter. These objects can in turn be assigned to output relays of
the 6MD66x using the DIGSI configuration matrix. If the Cmd.via control parameter is set to „None“ to
perform the circuit breaker assignment, no switching object is closed and the AR Close command common to
protective devices is generated. It can be allocated to output relays as a normal single indication. The transfer
trip indication is generated independent of whether this parameter is set or not.
The figure below illustrates the procedure on a configuration example:
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Figure 2-60 Allocation of the circuit breaker to the automatic reclosure function
Circuit Breaker Auxiliary Contacts
The logic functions of the AR evaluate, among other things, the circuit breaker position. This is done using the
binary signals transmitted by the circuit breaker auxiliary contacts, which are routed to appropriately configured
binary inputs of the 6MD66x.
The circuit breaker position is evaluated not only by the AR but also by the breaker failure protection function,
if the device is equipped with it.
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Figure 2-61 Example for allocation of CB auxiliary contacts to function blocks
Starting Conditions
The AR function is started by the detection of a rising-edge trip command from the protection device operating
in conjunction with the AR. What happens on starting the AR is determined by the setting of the parameter AR
CONTROL MODE. This parameter specifies whether the AR is controlled by trip command or by pickup, and
whether it operates with or without cyclic control by action times.
The automatic reclosing is not started if the circuit breaker has not been ready for at least one TRIP–CLOSE–
TRIP–cycle at the instant of the first trip command. This can be achieved by setting parameters.
Action Times
It is often desirable to remove the ready for reclosure state if the short-circuit condition was sustained for a
certain time, e.g. because it is assumed that the arc has burned in to such an extent that there is no longer any
chance of automatic arc extinction during the reclose dead time.
The automatic reclosure function of the 6MD66x can be operated with or without action times (configuration
parameter AR control mode). Without action time, initiation takes place as soon as the first trip command
appears.
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When operating with action time, an action time is available for each reclose cycle. The action times are started
through binary inputs. If no trip command is present before the action time expires, the corresponding reclose
cycle is not carried out.
For each reclosure cycle, it can be specified whether or not it should allow the initiation. Following the first
general pickup, only those action times are relevant whose cycles allow st arting because the other cycles are
not allowed to initiate. By means of the action times and the permission to start the recloser (permission to be
the first cycle that is executed), it is possible to determine which reclose cycles are executed depending on the
time it takes the protection function to trip.
Example 1: 3 cycles are set. Starting of the automatic reclosure function is allowed for at least the first cycle.
The action times are set as follows:
• 1st Reclosure: T Action = 0.2 s;
• 2nd Reclosure: T Action = 0.8 s;
• 3rd Reclosure: T Action = 1.2 s;
Since reclosure is ready before the fault occurs, the first trip of a time overcurrent protection following a fault is
fast, i.e. before the end of any action time. This starts the automatic reclose function. After unsuccessful reclo-
sure, the 2nd cycle would then become active; but the time ov ercurrent protection does not trip in this example
until after 1s according to its grading time. Since the action time for the second cycle was exceeded here, the
second cycle is blocked. The 3rd cycle with its parameters is therefore carried out now. If the trip command
appeared more than 1.2 s after the 1st reclosure, there would be no further reclosure.
Example 2: 3 cycles are set. St arting is only allowed for the first. The action times are set as in example 1. The
first protection trip takes place 0.5 s after starting. Since the action time for the 1st cycle has already expired at
this time, this cannot start the automatic reclose function. As the 2nd and 3rd cycles are not permitted to start
the reclose function they will also not be initiated. Therefore no reclosure takes place as no starting took place.
Example 3: 3 cycles are set. At least the first two cycles are set such that they can start the recloser . The action
times are set as in example 1. The first protection trip takes place 0.5 s after starting. Since the action time for
the 1st cycle has already expired at this time, it cannot st art the automatic reclosure function, but the 2nd cycle,
for which initiating is allowed, is activated immediately. This 2nd cycle therefore start s the automatic reclosure
function, the 1st cycle is practically skipped.
Control Mode of the Automatic Reclosure
The dead times — these are the times from eliminati on of the fault (drop off of the trip command or signalling
via auxiliary contacts) to the initiation of the automatic close command — may vary , depending on the automatic
reclosure control mode selected when determining the functional scope and the resulting signals of the starting
protective functions.
In control mode TRIP ... (With TRIP command...) 1-pole or 1/3-pole reclose cycles are possible if the device
and the circuit breaker are suitable. In this case, different dead times (for every AR-cycle) are possible after 1-
pole tripping and after 3-pole tripping. The tripping protection function determines the type of tripping: 1-pole or
3-pole. Selection of the dead time depends on this.
In control mode PICKUP ... (With PICKUP...) dif f erent dead times can be set for every reclosure cycle after
3-phase faults. Selection of the dead time in this case depends on the type of fault determined by the initiating
protective function at the instant that the trip command resets. This operating mode allows the dead times to
be dependent on the type of fault in the case of 3-pole reclose cycles.
In the control mode with cyclic control by action times, the cycle action times are started by the pickup.
In the control mode wit hout cyclic control by action times, the pickup signal from the protection device is irrel-
evant. The AR cycles are always performed in chronological order (1st cycle, 2nd cycle etc.).
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Reclosure Block
Different conditions lead to blocking of the automatic reclosure. No reclosure is, for example, possible if it is
blocked via a binary input. If the automatic reclosure has not yet been started, it cannot be started at all. If a
reclose cycle is already in progress, dynamic blocking takes place (see below).
Each individual cycle may also be blocked via binary input. In this case the cycle concerned is declared as
invalid and will be skipped in the sequence of permissible cycles. If blocking takes place while the cycle con-
cerned is already running, this leads to aborting of the reclosure, i.e. no reclosure takes place even if other valid
cycles have been parameterised.
Internal blocking signals, with a limited duration, arise during the course of the reclose cycles:
The reclaim time TIME RESTRAINT begins with every automatic reclosure command. If the reclosure is suc-
cessful, all the functions of the automatic reclosure return to the quiescent state at the end of the blocking time;
a fault after expiry of the reclaim time is treated as a new fault in the network. Re-tripping by a protection func-
tion during the reclaim time initiates the next reclose cycle in the case of multiple reclosure; if no further reclo-
sure is permitted, the last reclosure cycle is declared as unsuccessful if re-tripping within the reclaim time takes
place. The automatic reclosure is blocked dynamically.
The dynamic blocking locks the reclosure for the duration of the dynamic blocking time (0.5 s). This occurs, for
example, after a final tripping or other events which block the auto reclose function after it has been started.
Restarting is locked out for this time. When this time expires, the automatic reclosure function returns to its qui-
escent state and is ready for a new fault in the network.
If the circuit breaker is closed manually (by the control discrepancy switch connected to a binary input, the local
control possibilities or via one of the serial interfaces), the automatic reclosure is blocked for a manual-close-
blocking time T-BLOCK MC. If a trip command is issued during this time, it can be assumed that a metallic short-
circuit is the cause (e.g. closed earth switch). Every trip command within this time is therefore a final trip. With
the user definable logic functi ons (CFC) further control functions can be processed in the same way as a
manual–close command.
Interrogation of Circuit Breaker Ready
A precondition for automatic reclosure following clearance of a short-circuit is that the circu it breaker is ready
for at least one TRIP-CLOSE-TRIP cycle when the automatic reclosure circuit is started (i.e. at the time of the
first trip command). The readiness of the circuit breake r is signalled to the device through the binary input
„>CB1 Ready“ (No. 371).
In the event of a single cycle reclosure this interrog ation is usually sufficient. Since, for example, the air pres-
sure or the spring tension for the circuit breaker mechanism drops after the trip, no further interrogation should
take place.
Especially when multiple reclosing attempts are programmed, it is recommended to monitor the circuit breaker
condition not only prior to the first, but also before each following reclosing attempt. Reclosure will be blocked
until the binary input indicates that the circuit breaker is ready to complete another CLOSE-TRIP cycle.
The recovery time of the circuit breaker can be monitored by the 6MD66x. This monitoring time CB TIME OUT
starts as soon as the CB indicates the not ready state. The dead time may be extended if the ready state is not
indicated when it expires. However, if the circuit breaker does not indicate its ready status for a longer period
than the monitoring time, reclosure is locked out dynamically (see also above under margin heading „Reclosure
Block“).
Monitoring with an AR Cycle in Progress
Monitoring of the circuit breaker readiness is also performed before a reclosure and during the dead time, if it
has been released for the cycle with the parameter ADT CB? CLOSE. When the binary input >CB ready goes
OFF, the AR is not dynamically blocked at once, but the CB ready monitoring time CB TIME OUT is started.
This CLOSE command management provides a controlled delay of th e CLOSE command to allow the circuit
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breaker a recovery time after its previous trip before completing another close/trip cycle. This recovery time is
used, for instance, to build up sufficient air pressure for the next switching operations.
If the BI >CB ready goes ON again before the monitoring time has elapsed, the monitoring time will be reset,
and the AR continues.
• If the CB monitoring time is still running at the end of the regular dead time, the dead time will be extended
by the rest of the CB monitoring time. If the readiness of the CB returns within the maximum permissible
extension of the dead time defined by parameter T-DEAD EXT., and before expiry of the CB monitoring
time, the AR will be continued, and the monitoring time reset.
If the CB monitoring time is still running at the end of the maximum permissible extension of the dead time
defined by parameter T-DEAD EXT., the automatic reclosure function will be blocked dynamically.
If the monitoring time elapses before the circuit breaker signals its readiness, the automatic reclosure func-
tion will be blocked dynamically.
The dynamic blocking aborts the reclosure attempt. No CLOSE command is generated. After expiry of the
settable dynamic blocking time T BLK DYN, the AR will be reset.
Processing the Circuit Breaker Auxiliary Contacts
If the circuit breaker auxiliary contacts are connected to the device, the reaction of the circuit breaker is also
checked for plausibility . The circuit breaker auxiliary contacts can be connected to the device through the binary
inputs „>CB1 3p Closed“, „>CB1 3p Open“ and 1-pole >CB1Pole Lx. These binary signals inform the AR
whether the circuit breaker is open, closed or in intermediate position. No current criterion is used. Whether
auxiliary contacts are evaluated depends on which of them are allocated, if any.
• No CB auxiliary contact allocated
If no circuit breaker auxiliary contacts are allocated, the AR cannot detect the switching status of the circuit
breaker. Monitoring for "CB open without TRIP" and starting the dead time in dependence of the circuit
breaker feedback is not possible in this case. The AR is controlled by the TRIP command instead.
• Circuit breaker signal „>CB1 3p Open“ allocated
If binary signal „>CB1 3p Open“ alone is used, the circuit breaker is considered 3-pole open while the
signal is active. If the binary signal is active and no trip command applies, the automatic reclosure function
is statically blocked when it is in normal state, dynamically blocked when it is running and the „CB not
ready“ indication is output. The dead time is started while the automatic reclosure function is running if the
binary input becomes active following the trip command. An intermediate position of the circuit breaker
cannot be detected for this type of allocation.
• Circuit breaker signals „>CB1 3p Closed“ or >CB Pole Lx allocated
If binary signal „>CB1 3p Closed“ is used, the circuit breaker is considered 3-pole closed while the signal
is active. If the >CB Aux. Lx signals are allocated, the state of each pole of the cicru it breaker can be de-
termined what is especially important for a 1-pole reclosure. If such a binary signal is active and no trip
command applies, the automatic reclo s ure function is blocked statically when it is in normal state, dynami-
cally when it is running and the „CB not ready“ indication output. The dead time is started while the au-
tomatic reclosure function is running if the binary input becomes inactive following the trip command. An in-
termediate position of the circuit breaker cannot be detected for this type of allocation.
• Circuit breaker signals „>CB1 3p Open“ and „>CB1 3p Closed“ allocated
If both binary signals are used, the circu it breaker is considered open, when „>CB1 3p Open“ is active
and „>CB1 3p Closed“ inactive. An vice versa, the circuit breaker is considered closed, when „>CB1 3p
Open“ is inactive and „>CB1 3p Closed“ active. All other states are considered intermediate position. If
the circuit breaker is in intermediate position or opens without a trip command being detected, the automatic
reclosure is blocked statically when it is in normal state and dynamically when it is running. The start of the
dead time takes place while the automatic reclosure is running, when the circuit breaker is considered open.
The static blocking of the automatic reclosure function is indicated via the „AR is blocked“ indication,
dynamic via „AR is NOT ready“ and th e blocking cause via „CB not ready“ in both cases.
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Sequence of a 3-pole Interrupt Cycle
If the automatic reclosure function is ready, the short-circuit protection trips three pole for all faults inside the
stage selected for reclosure. The auto reclose function is then started. When the trip command resets or the
circuit breaker opens (auxiliary contact criterion) an (adjustable) dead time starts. At the end of this dead time
the circuit br ea ke r recei v e s a clos e co mma nd . At the sa me time, th e (a dj u stable) blo ckin g ti me is started. If
during configuration of the protective functions in AR control mode = PICKUP ... was set, different dead
times can be parameterised depending on the type of protection pickup.
If the fault is cleared (successful reclosure), the reclaim time expires and all functions return to their quiescent
state. The fault is cleared.
If the fault has not been eliminated (unsuccessful reclosure), the short-circuit protection initiates a final trip fol-
lowing a protection stage active without reclosure. Any fault during the reclaim time leads to a final trip.
After unsuccessful reclosure (final tripping) the automatic reclosure function is blocked dynamically (see also
margin heading „Reclose Block“, above).
The sequence above applies for single reclosure cycles. In 6MD66x multiple reclosure (up to 8 shots) is also
possible (see below).
Sequence of a 1-pole Interrupt Cycle
1-pole reclose cycles are only possible with the appropriate device version and if this was selected during the
configuration of the protective functions (Trip 1pole, see also Section 2.1.1.2). Of course, the circuit breaker
must also be suitable for 1-pole tripping.
If the automatic reclosure function is ready, the short-circuit protection trips single pole for all 1-phase faults
inside the stage selected for reclosure. 1-pole tripping is of course only possible by short-circuit protective func-
tions which can determine the faulty phase.
If multiple-phase faults occur, the fault protection issues a final 3-pole trip with the stage that is valid without
reclosure. Any 3-pole trip is final. The automatic reclosure function is blocke d dynamically (see also m arg i n
heading „Blocking reclosure“, above).
The automatic reclosure function is started in the case of 1-pole tripping. The (adjustable) dead time for the 1-
pole reclose cycle start s with reset of the trip command or opening of the circuit breaker pole (auxiliary contact
criterion). After expiry of the dead time, the circuit breaker receives a close command. At th e same time, the
(adjustable) reclaim time is started. If the reclosure is blocked during the dead time following a 1-pole trip, im-
mediate 3-pole tripping can take place as an option (forced 3-pole trip).
If the fault is cleared (successful reclosure), the reclaim time expires and all functions return to their quiescent
state. The fault is cleared.
If the fault has not been eliminated (unsuccessful reclosure), the short-circuit protection initiates a final 3-pole
trip with the protection stage that is valid without reclosure. All faults during the reclaim time also lead to a final
3-pole trip.
After unsuccessful reclosure (final tripping) the automatic reclosure function is blocked dynamically (see also
margin heading „Reclose Block“, above).
The sequence above applies for single reclosure cycles. In 6MD66x multiple reclosure (up to 8 shots) is also
possible (see below).
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Sequence of a 1 and 3-pole Interrupt Cycle
This operating mode is only possible with the appropriate device version and if this was selected during con-
figuration of the protective functions (see also Section 2.1.1.2). Of course, the circuit breaker must also be suit-
able for 1-pole tripping.
If the automatic reclosure function is ready , the short-circuit protection trips 1-pole for 1-phase faults and 3-pole
for multi-phase faults. 1-pole tripping is of course only possible with short-circuit protective functions that can
determine the faulty phase. The valid protection stage selected for reclosure ready state applies fo r all fault
types.
The automatic reclosure function is started at the moment of tripping. Depending on the type of fault, the (ad-
justable) dead time for the 1-pole reclose cycle or the (separately adjus table) dead tim e for the 3-pole reclose
cycle starts following the reset of the trip command or opening of the circuit breaker (pole) (auxiliary contact
criterion). After expiry of the dead time, the circuit breaker receives a close command. At the same time, the
(adjustable) reclaim time is started. If the reclosure is blocked during the dead time following a 1-pole trip, im-
mediate 3-pole tripping can take place as an option (forced 3-pole trip).
If the fault is cleared (successful reclosure), the reclaim time expires and all functions return to their quiescent
state. The fault is cleared.
If the fault has not been eliminated (unsuccessful reclosure), the short-circuit protection initiates a final 3-pole
trip with the protection stage that is valid without reclosure. All faults during the reclaim time also lead to a final
3-pole trip.
After unsuccessful reclosure (final tripping), the automatic reclosure function is blocked dynamically (see also
margin heading „Reclose Block“, above).
The sequence above applies for single reclosure cycles. In 6MD66x multiple reclosure (up to 8 shots) is also
possible (see below).
Multiple auto-reclosure
If a short-circuit still exists after a reclosure attempt, further reclosure attempts can be made. Up to 8 reclosure
attempts are possible with the automatic reclosure function integrated in the 6MD66x.
The first four reclosure cycles are in dependent of each other. Each one has separate action and dead times,
can operate with 1- or 3-pole trip and can be blocked separately via binary inputs. The parameters and inter-
vention possibilities of the fourth cycle also apply to the fifth cycle and onwards.
The sequence is the same in principle as in the different reclosure programs described above. However, if the
first reclosure attempt was unsuccessful, the reclosure function is not blocked, but instead the next reclose
cycle is started. The appropriate dead time starts with the reset of the trip command or opening of the circuit
breaker (pole) (auxiliary contact criterion). The circuit breaker receives a new close command after expiry of
the dead time. At the same time the reclaim time is started.
The reclaim time is reset with each new trip command after reclosure and is started again with the next close
command until the set maximum number of permissible auto-reclose cycles has been reached.
If one of the reclosing attempts is successful, i.e. the fault disappeared after reclosure, the blocking time expires
and the automatic reclosing system is reset. The fault is cleared.
If none of the cycles is successful, the short-circuit protection initiates a final 3-pole trip after the last permissible
reclosure, f ollowin g a prot ection st age th at is val id without auto-reclosure. The automatic reclosure function is
blocked dynamically (see also margin hea ding „Blocking reclosure“, above).
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Handling Evolving Faults
When 1-pole or 1-and 3-pole reclose cycles are executed in the network, particular attention must be paid to
sequential faults.
Evolving faults are faults which occur during the dead time after clearance of the first fault.
There are various ways of handling sequential faults in the 6MD66x depending on the requirements of the net-
work:
For the detection of an evolving fault you can select whether the trip command of the external protection during
the dead time or every further pickup is the criterion for an evolving fault.
There are also various selectable possibilities for the response of the internal auto- reclose function to a de-
tected ev ol vi n g fa ul t.
•EV. FLT. MODE blocks AR:
The reclosure is blocked as soon as a seque ntial fault is detected. The tripping by the sequential fault is
always 3-pole. This applies irrespective of whether 3-pole cycles have been permitted or not. There are no
further reclosure attempts; the automatic reclosure function is blocked dynamically (see also margin heading
„Blocking reclosure“, above).
•EV. FLT. MODE starts 3p AR:
As soon as a sequent i al fau l t is d et ect ed , the recloser switches to a 3-pole cycle. Each trip command is 3-
pole. The separately settable dead time for sequential faults starts with the clearance of the sequential fault;
after the dead time the circuit breaker receives a close command. The further sequence is the same as for
1- and 3-pole cycles.
The complete dead time in this case consists of the part of the dead time for the 1-pole reclosure up to the
clearance of the sequential fault plus the dead time for the sequential fault. This makes sense because the
duration of the 3-pole dead time is most important for the stability of the network.
If reclosure is blocked due to a sequential fault without the protection issuing a 3-pole trip command (e.g. for
sequential fault detection with starting), the device can send a 3-pole trip command so that the circuit breaker
does not remain open with one pole (forced 3-pole trip).
Dead Line Check (DLC)
If the voltage of a disconnected phase does not disappear following a trip, reclosure can be prevented. A pre-
requisite for this function is that the voltage transformers are connected on the line side of the circuit breaker.
To select this function the dead line check must be activated. The automatic reclosure function then checks the
disconnected line for no-voltage: the line must have been without voltage for at least an adequate measuring
time during the dead time . If this was not the case, the reclosure is blocked dynamically.
A voltage detection fault causes blocking of the automatic reclosure function in the dead line check mode.
V oltage detection faults are, for example, pickup of the voltage failure monitoring or the „>FAIL:Feeder VT“
binary signal.
This no-voltage check on the line is of advantage if a small generator (e.g. wind generator) is connected along
the line.
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Reduced Dead Time (RDT)
If automatic reclosure fu nction is performed in connection with time-graded protection, no n-selective tripping
before reclosure is often unavoidable in order to achieve fast, simultaneous tripping at all line ends. The
6MD66x has a „reduced dead time (RDT)“ procedure which reduces the effect of the short-circuit on healthy
line sections to a minimum. All phase-to-phase and phase-to-earth voltages are measured for the reduced
dead time procedure. These voltages must rise above the threshold U-live> (address 3440) for the voltage
measuring time T U-stable (address 3438). The value set for U-live> is appropriately converted for the
phase-to-phase voltages. The voltage transformers must be located on the line side of the circuit breaker.
In the event of a short-circuit close to one of the line ends, the surrounding lines can initially be tripped because,
for example, a distance protection detects the fault in its overreaching zone Z1B (Figu r e 2-62, mounting loca-
tion III). If the network is meshed and there is at least one other infeed on busbar B, the voltage there returns
immediately after clearance of the fault. For 1-pole tripping it is sufficient if there is an earthed transformer with
delta winding connected at busbar B which ensures symmetry of the voltages and thus induces a return voltage
in the open phase. This allows a distinction between the faulty line and the unfaulted line to be made as follows:
Since line B - C is only tripped singled-ended at C, it receives a return voltage from the end B which is not
tripped so that at C the open phase(s) also has(have) voltage. If the device detects this at position III, reclosure
can take place immediately or in a shorter time (to ensure sufficient voltage measuring time). The healthy line
B - C is then back in operation.
Line A–B is tripped at both ends. No voltage is therefore present identifying the line as the faulted one at both
ends. The normal dead time comes into service here.
Figure 2-62 Example of a reduced dead time (RDT)
A, B, C Busbars
I, II, III Relay locations
X Tripped circuit breakers
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Adaptive Dead Time (ADT)
In all the previous alternatives it was assumed that defined and equal dead times were set at both line ends, if
necessary for different fault types and/or reclose cycles.
It is also possible to set the dead times (for different fault types and/or reclose cycles, if necessary) at one line
end only and to configure the adaptive dead time at the other end(s). This requires that the voltage transformers
are located on the line side of the circuit breaker or that a close command can be sent to the remote line end.
Figure 2-63 shows an example with voltage measurement. It is assumed that device I operates with define d
dead times whereas the adaptive dead time is configured at position II. It is important that the line is at least
fed from busbar A, i.e. the side with the defined dead times.
When using the adaptive dead time, the automatic reclosing function at line end II decides autonomously
whether to allow reclosing or not. Its decision is based on the line voltage at end II, which was reapplied from
end I following reclosure. Device II will thus initiate reclosing as soon as it is evident that the line has been re-
energized from end I. All phase-to-phase and phase-to-earth voltages are monitored.
In the illustrated example, the lines are disconnected at positions I, II and III. In I reclosure takes place after the
configured dead time. At position III a reduced dead time can be used (see above) if there is also an infeed on
busbar B.
If the fault has been cleared (successful reclosure), line A - B is re-connected to the voltage at busbar A through
position I. Device II detects this voltage and also recloses after a short delay (to ensure a sufficient voltage mea-
suring time). The fault is cleared.
If the fault has not been cleared after reclosure at I (unsuccessful reclosure), the line will be disconnected again
in position I with the result that no healthy voltage is detected at location II so that the circuit breaker there does
not reclose.
In the case of multiple reclosure the sequence may be repeated several times following an unsuccessful reclo-
sure until one of the reclosure attempts is successful or a final trip takes place.
Figure 2-63 Example of adaptive dead time (ADT)
A, B, C Busbars
I, II, III Relay locations
X Tripped circuit breakers
As is shown by the example, the adaptive dead time has the following advantages:
• The circuit breaker at position II is not reclosed if the fault persists and is not unnecessarily stressed as a
result.
• With non-selective tripping by overreach at position III no further trip and reclose cycles occur here because
the short-circuit path via busbar B and position II remains interrupted even in the event of several reclosure
attempts.
• At position I overreach is allowed in the case of multiple reclosures and even in the event of final tripping
because the line remains open at position II and therefore no actual overreach can occur at I.
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The adaptive dead time also includes the reduced dead time because the criteria are the same. There is no
need to set the reduced dead time as well.
Control of the Automatic Reclosure by the TRIP Command
If the auto-reclosure is controlled by the trip command, the following inputs and outputs are recommended to
be used:
The automatic reclosure function is started via the Binary inputs:
2711 „>AR Start“ General fault detection for the automatic reclosure circuit (only required for
action time),
2712 „>Trip L1 AR“ Trip command L1 for the automatic reclosure circuit,
2713 „>Trip L2 AR“ Trip command L2 for the automatic reclosure circuit,
2714 „>Trip L3 AR“ Trip command L3 for the automatic reclosure circuit.
The general pickup is decisive for starting the action times. It is also required if the automatic reclosing function
has to detect sequential faults via pickup. In other cases, this input information is irrelevant.
The trip commands decide whether the dead time is activated for 1-pole or 3-pole reclose cycles or whether
the reclosure is blocked in the event of a 3-pole trip (depending on th e configured dead times).
Figure 2-64 C onnection example with external protection device for 1-/3-pole reclosure; AR control mode
= with TRIP
Figure 2-64 shows as a connection example the interconnection between the automatic reclosure of 6MD66x
and a protection device.
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To achieve 3-pole coupling of the external protection and to release, if necessary , its accelerated stages before
reclosure, the following outp ut functions are suit ab l e :
2864 „AR 1p Trip Perm“ Internal automatic reclosure function ready for 1-pole reclose cycle, i.e.
allows 1-pole tripping (logic inversion of the 3-pole coupling).
2889 „AR 1.CycZoneRel“ Internal automatic reclosure function ready for the first reclose cycle, i.e. re-
leases the stage of the external protection device for reclosure, the corre-
sponding outputs can be used for other cycles. This output can be omitted if
the external protection does not require an overreaching stage (e.g. differ-
ential protection or comparison mode with distance protection).
2820 „AR Program1pole“ Internal automatic reclosure function is programmed for one pole, i.e. only
recloses after 1-pole tripping. This output can be omitted if no overreaching
stage is required (e.g. differential protection or comparison mode with dis-
tanc e pro tection).
Instead of the 3-phase-segregated trip commands, the 1-pole and 3-pole tripping may also be signalled to the
internal automatic reclosure function - provided that the external protection device is capable of this -, i.e.
assign the following binary inputs of the 6MD66x:
2711 „>AR Start“ General fault detection for the internal automatic reclosure function (only re-
quired for action time),
2715 „>Trip 1p for AR“ Trip command 1-pole for the internal automatic reclosure function,
2716 „>Trip 3p for AR“ Trip command 3-pole for the internal automatic reclosure function.
If only 3-pole reclosure cycles are to be executed, it is sufficient to assign the binary input „>Trip 3p for
AR“ (No. 2716) for the trip signal. Figure 2-66 shows an example. Any overreaching stages of the external pro-
tection are enabled again by „AR 1.CycZoneRel“ (No. 2889) and of further cycl es, if applicab le.
Figure 2-65 Connection example with external protection device for 1-/3-pole reclosure; AR control mode
= with TRIP
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Figure 2-66 Connection example with external protection device for 3-pole reclosure; AR control mode =
with TRIP
But if the internal automatic reclose function is controlled by the pickup (only possible for 3-pole tripping: 110
Trip 1pole = 3pole only), the phase-dedicated pickup signals of the external protection must be connect-
ed if distinction shall be made between different types of fault. The general trip command then suffices for trip-
ping (No. 2746). Figure 2-67 shows a connection example.
Control of the Automatic Reclosure by the Pickup Signal
If, on the other hand, the internal auto-reclosure is controlled by the pickup, the phase-dedicated pickup signals
must be connected from the external protection. The general trip command then suffices for tripping. Connec-
tion examples in the figure below.
Figure 2-67 Connection example with external protection device for fault detection dependent dead time —
dead time control by pickup signals of the protection device; AR control mode = with PICKUP
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2.10.2 Setting Notes
General
If no reclosure is required on the feeder for which the 6MD66x is used (e.g. for cables, transformers, motors or
similar), the automatic reclosure function must be removed during configuration of the device (see Section
2.1.1.2). The au to re close funct ion is the n tot a ll y disa bled, i.e. the automatic reclosure is not processed in the
6MD66x. No signals regarding the auto reclose function are generated, and the bin ary inputs for the auto
reclose function are ignored. All parameters for setting the auto reclose function are inaccessible and of no sig-
nificance.
For the auto reclose function to be active, all three possible methods for switching it ON/OFF must be switched
ON:
• Parameter settings
• Binary inputs
• System interface
When the device is started up, the AR is switched ON through binary inputs and the system interface, if it has
not been explicitly switched OFF through the system interface.
Basically , the AR can only be reactivated from the same source from which it was deactivated. If it was switched
OFF by more than one mechanism, all sources must switch the AR back ON before it becomes active again.
If the internal automatic reclosure function is to be used, the user must select during the configuration of the
functions (Section 2.1. 1.2) the type of reclosure in address Auto Reclose and the AR control mode in AR
control mode.
Up to 8 reclosure attempts are allowed with the integrated automatic reclosure function in the 6MD66x. There
are individual settings and common settings, which apply for one or more of the reclose cycles. It is possible to
set different individual p arameters for the first four reclose cycles. From the fifth cycle on the parameters for the
fourth cycle apply.
The automati c reclosing function can be turned ON or OFF with the parameter AUTO RECLOSE.
A prerequisite for automatic reclosure taking place after a trip due to a short-circuit is that the circuit breaker is
ready for at least one TRIP-CLOSE-TRIP cycle at the time the automatic reclosure circuit is started, i.e. at the
time of the first trip command. The readiness of the circuit breaker is signalled to the device through the binary
input „>CB1 Ready“ (FNo 371). If no such signal is available, leave the setting CB? 1.TRIP = NO because
no automatic reclosure would be possible at all otherwise. If circuit breaker interrogation is possible, you should
set CB? 1.TRIP = YES.
Furthermore, the circuit breaker ready state can also be interrogated prior to every reclosure. This is set when
setting the individual reclose cycles (see below).
To check the ready status of the circuit breaker is regained during the dead times, you can set a circuit breaker
ready monitor time in CB TIME OUT. The time is set slightly longer than the recovery time of the circuit breaker
after a TRIP-CLOSE-TRIP cycle. If the circuit breaker is not ready again by the time this timer expires, no re-
closure takes place, the automatic reclosure function is blocked dynamically.
W aiting for the circuit breaker to be ready can lead to an increase of the dead times. Interrogation of a synchro-
check (if used) can also delay reclosure. To avoid uncontrolled prolongation, it is possible to set a maximum
prolongation of the dead time in this case in T-DEAD EXT.. This prolongation is unlimited if th e setting ∞ is
applied. This setting can only be altered with DIGSI under Additional Settings. Remember that longer de ad
times are only permissible after 3-pole tripping when no stability problems arise or when a synchro-check takes
place before reclosure.
Generally, the monitoring time should be longer than the maximum duration of the synchronization process.
The reclaim time TIME RESTRAINT defines the time that must elapse, after a successfulreclosing attempt,
before the automatic reclosing function is reset. Re-tripping of a protective function within this time initiates the
next reclose cycle in the event of multiple reclosure; if no further reclosure is permitted, the last reclosure is
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treated as unsuccessful. The reclaim time must therefore be longer than the longest response time of a protec-
tive function which can start the automatic reclosure circuit.
A few seconds are generally sufficient. In areas with frequent thunderstorms or storms, a shorter reclaim time
may be necessary to avoid feeder lockout due to sequential lightning strikes or flashovers.
A longer reclaim time should be chosen where circuit breaker supervision is not possible (see above) during
multiple reclosures, e.g. because of missing auxiliary con tacts and information on the circuit breaker ready
status. In this case, the reclaim time should be longer than the time required for the circuit breaker mechanism
to be ready.
The blocking duration following Manual-Close detection T-BLOCK MC must guarantee the circuit breaker to
open and close reliably (0.5 s to 1 s). If a fault is detected by a protective function within this time after closing
of the circuit breaker was detected, no reclosure takes place and a final 3-pole trip command is issued. If this
is not desired, set the blocking duration to 0.
The options for handling evolving faults are described in Section 2.10 under margin heading „Handling Evolving
Faults“. The treatment of evolving faults is not necessary on line ends where the adaptive dead time is applied
(Auto Reclose = ADT).
The detection of an evolving fault can be defined in EV. FLT. RECOG.. EV. FLT. RECOG. with PICKUP
means that, during a dead time, every pickup of a protective function will be interpreted as an evolving fault.
With EV. FLT. RECOG. with TRIP a fault during a dead time is only interpreted as an evolving fault if it has
led to a trip command by a protective function. This may also include trip commands which are coupled in
from external via a binary input or which have been transmitted from an opposite end of the protected object.
If an external protection device operates together with the internal auto-reclosure, evolving fault detection with
pickup presupposes that a pickup signal from the external device is also connected to the 6MD66x; otherwise
an evolving fault can only be detected with the external trip command even if with PICKUP was set here.
EV. FLT. MODE blocks AR means that no reclosure takes place after detection of an evolving fault. This is
always useful when only 1-pole reclosure is to take place or when stability problems are expected due to the
subsequent 3-pole dead time. If a 3-pole reclose cycle is to be initiated by tripping of the evolving fault, set EV.
FLT. MODE = starts 3p AR. In this case, a separately adjustable 3-pole dead time is started with the 3-pole
trip command due to the sequential fault. This is only useful if 3-pole reclosure is also permitted.
T-Start MONITOR monitors the reaction of the circuit breaker after a trip command. If the CB has not opened
during this time (from the beginning of the trip command), the automatic reclosure is blocked dynamically. The
criterion for circuit breaker opening is the position of the circuit breaker auxiliary contact or the disappearance
of the trip command. If a circuit breaker failure protection (internal or external) is used on the feeder, this time
should be shorter than the delay time of the circuit breaker failure protection so that no reclosure takes place if
the circuit breaker fails.
If the reclosure command is transmitted to the oppo site end, this transmission can be delayed by the time
setting in T RemoteClose. This transmission is only possible if the device operates with adaptive dead time
at the remote end (Auto Reclose = ADT at the remote end). This parameter is otherwise irrelevant. On the
one hand, this delay serves to prevent the remote end device from reclosing unnecessarily when local reclo-
sure is unsuccessful. On the other hand, it should be noted that the line is not available for energy transp ort
until the remote end has also closed. This delay must therefore be added to the dead time for consideration of
the network stability.
Forced 3-pole Trip
If reclosure is blocked during the dead time of a 1-pole cycle without a 3-pole trip command having been initi-
ated, the breaker remains open at one pole. With AR TRIP 3pole it is possible to determine that the tripping
logic of the device issues a 3-pole trip command in this case (pole discrepancy prevention for the CB poles).
Set this parameter t o YES if the CB can be tripped 1-pole and has no pole discrepancy protection itself. Never-
theless, the device pre-empts the pole discrepancy supervision of the CB because the forced 3-pole trip of the
device is immediately initiated as soon as the reclosure is blocked following a 1-pole trip or if the CB auxil ia r y
contacts report an implausible breaker state (see also Section 2.10 at margin heading „Processing the Circuit
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Breaker Auxiliary Contact s“). The forced 3-pole coupling is also activated when only 3-pole cycles are allowed,
but a 1-pole trip is signalled externally via a binary input.
The forced 3-pole coupling is unnecessary if only a common 3-pole control of the CB is possible.
Dead Line Check / Reduced Dead Time
With DLC / RDT the dead line check or the reduced dead time function can be activated. Either the one or the
other can be used as the two options are contradictory . The voltage transformers must be connected to the line
side of the circuit breaker if either of these modes is to be used. If this is not the case or if neither of the two
functions is used, set DLC / RDT = WITHOUT. If the adaptive dead time is used (see below), the parameters
mentioned here are omitted because the adaptive dead time implies the properties of the reduced dead time.
DLC / RDT = DLC means that the dead line check of the line voltage is used. This only enables reclosure after
it becomes apparent that the line is dead. In this case, the phase-earth voltage limit is set in U-dead< below
which the line is considered voltage-free (disconnected). The setting is applied in V olts secondary. If setting is
performed from a personal computer using DIGSI, this value may be entered as a primary value. T U-stable
determines the measuring time available for determining the no-voltage condition. U-dead< is irrelevant here.
DLC / RDT = RDT means that the reduced dead time is used. This is described in detail in Section 2.10 at
margin heading „Reduced Dead Time (RDT)“. In this case the setting of U-live> determines the limit voltage,
Phase–Earth, above which the line is considered to be fault-free. The setting must be smalIer than the lowest
expected operating voltage. The setting is applied in Volts secondary. If setting is performed from a personal
computer using DIGSI, this value may be entered as a primary value. T U-stable determines the measuring
time available for determining th e voltage. It shoul d be longer than any transient voltage oscillations resulting
from line energization. U-dead< is irrelevant here.
Adaptive Dead Time (ADT)
When operating with adaptive dead time, it must be ensured in advance that one end per line operates with
defined dead times and has an infeed. The other (or the others in multi-branch lines) may operate with adaptive
dead time. It is essential that the voltage transformers are located on the line side of the circuit breaker . Details
about this function can be found in Section 2.10 at margin heading „Adaptive Dead Time (ADT)“.
For the line end with defined dead times the number of desired reclose cycles must be set during the configu-
ration of the protective functions in Auto Reclose. For the devices operating with adaptive dead time, Auto
Reclose = ADT must be set during the configuration of the protective functions. Only the parameters described
below are interrogated in the latter case. No settings are then made for the individual reclosure cycles. The
adaptive dead time implies functionality of reduced dead time.
The adaptive dead time may be voltage-controlled or Remote–CLOSE–controlled. Both are possible at the
same time. In the first case, reclosure takes place as soon as the return voltage, after reclosure at the remote
end, is detected. For this purpose the device must be connected to voltage transformers located on the line
side. In the case of Remote-CLOSE, the autoreclosure waits until the Remote-CLOSE command is received
from the remote end.
The action t im e T-ACTION ADT is the timeframe after pickup of the external protection which can start the
automatic reclosure function within which the trip command must appear . If no trip command is issued until the
action time has expired, there is no reclosure. Depending on the configuration of the function scope (see
Section 2.1.1.2), the action time may also be omitted; this applies especially when an initiating protective func-
tion has no fault detection signal.
The dead times are determined by the reclosure command of the device at the line end with the defined dead
times. In cases where this reclosure command does not appear, e.g. because the reclosure was in the mean-
time blocked at this end, the readiness of the local device must return to the quiescent state at some time. This
takes place after the maximum wait time T-MAX ADT. This must be long enough to include the last reclosure
of the remote end. In the case of single cycle reclosure, the sum of the maximum dead time plus reclaim time
of the ot her device is sufficient. In the case of multiple reclosure the worst case is that all reclosures of the other
end except the last one are unsuccessful. The time of all these cycles must be taken into account. To save
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having to make exact calculations, it is possible to use the sum of all dead times and all protection operating
times plus one reclaim time.
The 1-pole release is signalled to the external protection device operation in conjunction with the 6MD66x
through a binary input. The external protection device mu st not trip 1-pole until it has received that signal.
In ADT CB? CLOSE it can be determined whether circuit-breaker ready is interrogated before reclosure after
an adaptive dead time. With the setting YES, the dead time may be extended if the circuit breaker is not ready
for a CLOSE–OPEN–cycle when the dead time expires. The maximum extension that is possible is the circuit
breaker monitoring time; this was set for all reclosure cycles together in CB TIME OUT (see above). Details
about the circuit-breaker monitoring can be found in the function description, Section 2.10, at margin heading
„Interrogation of the Circuit Breaker Ready State“.
If there is a danger of stability problems in the network during a 3-pole reclosure cycle, set ADT SynRequest
to YES. In this case a check is made before reclosure following a 3-pole trip whether the voltages of the feeder
and busbar are sufficiently synchronous. This on condition that either the internal synchronism and voltage
check function is available or that an external device is available for synchronism check. If only 1-pole reclose
cycles are executed or no stability problems are expected during 3-pole dead times (e.g. due to closely meshed
networks or in radial networks), set ADT SynRequest to NO.
T U-stable and U-live> are only significant if the voltage-controlled adaptive dead time is used. Set in U-
live> the limit voltage phase–earth above which the line is considered to be fault-free. The setting must be
smalIer than the lowest expected operating voltage. The setting is applied in Volts secondary. If setting is per-
formed from a personal computer using DIGSI, this value may be entered as a primary value. T U-stable
determines the measuring time available for determining the voltage. It should be longer than any transient os-
cillations resulting from line energization.
1. Reclosure Cycle
If working on a line with adaptive dead time, no further parameters are needed for the individual reclose cycles
in this case. All the following parameters assigned to the individual cycles are then superfluous and inaccessi-
ble.
1.AR: START is only available if the automatic reclosure is configured with action time in the operating mode,
i.e. if during configuration of the protective functions (see Section 2.1.1.2) AR control mode = Pickup w/
Tact or Trip w/ Tact was set (the first setting only applies to 3-pole trippin g ). It de te rmi n e s wh et her auto-
matic reclosure should be started at all with the first cycle. This parameter is included mainly for the sake of
uniformity of the parameters for every reclosure attempt and is set to YES for the first cycle. If several cycles
are performed, you can (at AR control mode = Pickup ...) set this parameter and dif f erent a ction ti mes
to control the effectiveness of the individual cycles. Notes and examples can be found in Section 2.10 at margin
heading „Action Times“.
The action time 1.AR: T-ACTION is the timeframe after pickup of the external protection which can start the
automatic reclosure function within which the trip command must appear . If no trip command is issued until the
action time has expired, there is no reclosure. Depending on the configuration of the functional scope, the
action time may also be omitted; this applies especially when an initiating protective function of the exte rnal
protection device has no fault detection signal.
Depending on the configured operating mode of the automatic reclosure (AR control mode), only 1.AR
Tdead1Trip and 1.AR Tdead3Trip (if AR control mode = with TRIP...) are available, or 1.AR
Tdead1Trip to 1.AR Tdead3Trip (if AR control mode = with PICKUP ...).
In AR control mode = with TRIP... you can set different dead times for 1-pole and 3-pole reclose cycles.
Whether 1-pole or 3-pole tripping takes place depends solely on the initiating protective functions of the exter-
nal protection device. 1-pole tripping is only possible, of course, if the device and the corresponding protective
function ar e al so capable of 1-pole tripping.
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Table 2-15 AR control mode = with TRIP ...
If you only want to allow a 1-pole reclosure cycle, set the dead time for 3-pole tripping to ∞. If you only want to
allow a 3-pole reclosure cycle, set the dead time for 1-pole tripping to ∞. The protection will then trip 3-pol e
regardless of the fault type, since it does not receive the signal for 1-pole release from the 6MD66x.
The dead time after 1-pole tripping (if set) 1.AR Tdead1Trip should be long enough for the short-circuit arc
to be extinguished and the surrounding air to be de-ionized so that the reclosure pro mi s es to be successful.
The longer the line, the longer is this time due to the charging of the conductor capacitances. Usual values are
0.9 s to 1.5 s.
For 3-pole tripping (1.AR Tdead3Trip) the stability of the network is the main concern. Since the disconnect-
ed line cannot transfer any synch ronizing forces, only a sho r t dead time is often permitted. The usual values
are 0.3 s to 0.6 s. If the device is operating with a synchronism check device, a longer dead time may be toler-
ated under certain circumstances. Longer 3-po le dead times are also possible in radial networks.
For AR control mode = with PICKUP ... it is possible to make the dead times dependent on the type of
fault detected by the initiating protection function(s) of the external protection device.
Table 2-16 AR control mode = with PICKUP ...
If the dead time is to be the same for all types of faults, set all three parameters the same. Note that these set-
tings only cause different dead times for different pickups. The tripping can only be 3-pole.
With the setting in addressEV. FLT. MODE starts 3p AR, it is possible to apply a separate dead time 1.AR:
Tdead EV. for the 3-pole dead time after clearance of the evolving fault (see above at heading „General“).
Stability aspects are also decisive here. Normally the setting constraints are similar to 1.AR Tdead3Trip.
In 1.AR: CB? CLOSE it can be determined whether the readiness of the circuit breaker is interrogated before
this first reclosure. With the setting YES, the dead time may be extended if the circuit breaker is not ready for a
CLOSE–OPEN–cycle when the dead time expires. The maximum extension that is possible is the circuit
breaker monitoring time; this was set for all reclosure cycles together in CB TIME OUT (see above). Details
about the circuit-breaker monitoring can be found in the function description, Section 2.10, at margin heading
„Interrogation of the Circuit Breaker Ready State“.
If there is a danger of stability problems in the network during a 3-pole reclosure cycle, set 1.AR SynRequest
to YES. In this case, a check is made before every reclosur e following 3-pole tripping whether the voltages of
the feeder and busbar are sufficiently synchronized. This on condition that either the internal synchronism and
voltage check function is available or that an external device is available for synchronism check. If only 1-pole
reclose cycles are executed or no stability problems are expected during 3-pole dead times (e.g. due to closely
meshed networks or in radial networks), set 1.AR SynRequest to NO.
2. to 4th Reclosure Cycle
If several cycles have been set in the configuration of the scope of protective functions, you can set individual
reclosure parameters for the 2nd to 4th cycles. The same options are available as for the first cycle. Again, only
some of the parameters shown below will be available depending on the selections made during configuration
of the scope of protective function s of the external protection device.
For the 2nd cycle:
1.AR Tdead1Trip is the dead time after 1-pole tripping,
1.AR Tdead3Trip is the dead time after 3-pole tripping.
1.AR Tdead 1Flt is the dead time after 1-phase pickup,
1.AR Tdead 2Flt is the dead time after 2-phase pickup,
1.AR Tdead 3Flt is the dead time after 3-phase pickup.
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For the 3rd cycle:
For the 4th cycle:
5th to 8th Reclose Cycle
If more than four cycles were set during configuration of the functional scope, the dead times preceding the fifth
(5th) through the ninth (9th) reclosing attempts are equal to the open ci rcuit breaker time which precedes the
fourth (4th) reclosing attempt.
2.AR: START St a rt in 2nd cycle generally allowed
2.AR: T-ACTION Action time for the 2nd cycle
2.AR Tdead 1Flt Dead time after 1-phase pickup
2.AR Tdead 2Flt Dead time after 2-phase pickup
2.AR Tdead 3Flt Dead time after 3-phase pickup
2.AR Tdead1Trip Dead time after 1-pole tripping
2.AR Tdead3Trip Dead time after 3-pole tripping
2.AR: Tdead EV. Dead time after evolving fault
2.AR: CB? CLOSE CB ready interrogation before reclosing
2.AR SynRequest Sync. check after 3-pole tripping
3.AR: START St a rt in 3rd cycle gener ally allowed
3.AR: T-ACTION Action time for the 3rd cycle
3.AR Tdead 1Flt Dead time after 1-phase pickup
3.AR Tdead 2Flt Dead time after 2-phase pickup
3.AR Tdead 3Flt Dead time after 3-phase pickup
3.AR Tdead1Trip Dead time after 1-pole tripping
3.AR Tdead3Trip Dead time after 3-pole tripping
3.AR: Tdead EV. Dead time after evolving fault
3.AR: CB? CLOSE CB ready interrogation before reclosing
3.AR SynRequest Sync. check after 3-pole tripping
4.AR: START St a rt in 4th cycle generally allowed
4.AR: T-ACTION Action time for the 4th cycle
4.AR Tdead 1Flt Dead time after 1-phase pickup
4.AR Tdead 2Flt Dead time after 2-phase pickup
4.AR Tdead 3Flt Dead time after 3-phase pickup
4.AR Tdead1Trip Dead time after 1-pole tripping
4.AR Tdead3Trip Dead time after 3-pole tripping
4.AR: Tdead EV. Dead time after evolving fault
4.AR: CB? CLOSE CB ready interrogation before reclosing
4.AR SynRequest Sync. check after 3-pole tripping
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Notes on the Information Overview
The most important information about automatic reclosure is briefly explained insofar as it was not mentioned
in the following lists or described in detail in the preceding text.
„>BLK 1.AR-cycle“ (No. 2742) to „>BLK 4.-n. AR“ (No. 2745)
The respective auto-reclose cycle is blocked. If the blocking state already exists when the automatic reclosure
function is initiated, the blocked cycle is not executed and may be skipped (if other cycles are permitted). The
same applies if the automatic reclosure function is started (running), but not internally blocked. If the block
signal of a cycle appears while this cycle is being executed (in progress), the automatic reclosure function is
blocked dynamically; no further automatic reclosures cycles are then executed.
„AR 1.CycZoneRel“ (No. 2889) to „AR 4.CycZoneRel“ (No. 2892)
The automatic reclosure is ready for the respective reclosure cycle. This information indicates which cycle will
be run next. For example, external protection functions can use this information to release accelerated or over-
reaching trip stages prior to the corresponding reclose cycle.
„AR is blocked“ (No. 2783)
The automatic reclosure is blocked (e.g. circuit breaker not ready). This information indicates to the operational
information system that in the event of an upcoming system fault there will be a final trip, i.e. without reclosure.
If the automatic reclosure has been started, this information does not appear.
„AR is NOT ready“ (No. 2784)
The automa ti c re cl o su r e is not ready for re closure at the moment. In addition to the „AR is blocked“ (No.
2783) mentioned above there are also obstructions durin g the course of the auto-reclosure cycles such as
„action time run out“ or „last reclaim time running“. This information is particularly helpful during testing because
no protection test cycle with reclosure may be initiated during this state.
„AR in progress“ (No. 2801)
This information appears following the start of the automatic reclosure function, i.e. with the first trip command
that can start the automatic reclosure function. If this reclosure was successful (or any in the case of multiple
cycles), the information is reset with the expiry of the last reclaim time. If no reclosure was successful or if re-
closure was blocked, it ends with the last – the final – trip command.
„AR Sync.Request“ (No. 2865)
Measuring request to an external synchronism check device. „AR Sync.Request“ is only relevant if the pa-
rameter 3413 Cmd.via control is set to „No“, since only in that case synchronization is performed by an
external synchronism check device. The information appears at the end of a dead time subsequent to three-
pole tripping if a synchronism request was parameterized for the corresponding cycle. Reclosur e only takes
place when the synchronism check device has provid ed release signal „>Sync.release“ (No. 2731).
Cmd.via control (No. 3413)
The control device to be switched (Q0, Q1 etc.) can be specified with this parameter. The control device can
be closed (CLOSE command) or opened (in case of a forced 3-pole trip). The advantage of this setting is that
plausibility checks are performed for the device.
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If Cmd.via control is set to „No“, the CLOSE command is output using the single-point indications 2851
„AR Close“. The setting of Cmd.via control has also an effect on the synchronization of the breaker
closure (if synchronization is desired). If a control device is set, synchronization is always performed using an
internal synchronization module. If Cmd.via control is set to „No“ control device, synchronization is per-
formed via binary input 2731 „AR Close“.
Internal SYNC (No. 3414)
This parameter is relevant if commands are output via a control device (Q0, Q1 etc.) and synchronization of
the breaker closure is desired. In that case the synchronization module is specified in this parameter.
The control device stated in the setting of the selected synchronization module must be the same as in param-
eter 3413 Cmd.via control.
„>Sync.release“ (No. 2731)
Release of reclosure by an external synchronism check device if this was requested by the output information
„AR Sync.Request“ (No. 2865).
2.10.3 Settings
Addresses which have an appended "A" can only be changed with DIGSI, under Additional Settings.
Addr. Parameter Setting Options Default Setting Comments
3401 AUTO RECLOSE OFF
ON OFF Auto-Recl ose Function
3402 CB? 1.TRIP YES
NO NO CB read y interrogation at 1st trip
3403 TIME RESTRAINT 0.50 .. 300.00 sec 3.00 sec Auto Reclosing reset time
3404 T-BLOCK MC 0.50 .. 300.00 sec; 0 1.00 sec AR blocking duration after manual
close
3406 EV. FLT. RECOG. with PICKUP
with TRIP with TRIP Evolving fault recognition
3407 EV. FLT. MODE blocks AR
starts 3p AR
is ignored
starts 3p AR Evolving fault (during the dead
time)
3408 T-Start MONITOR 0.01 .. 300.00 sec 0.20 sec AR start-signal monitoring time
3409 CB TIME OUT 0.01 .. 300.00 sec 3.00 sec Circuit Breaker (CB) Supervision
Time
3410 T RemoteClose 0.00 .. 300.00 sec; ∞∞sec Send delay for remote close
command
3411A T-D EAD EXT. 0.50 .. 300.00 sec; ∞10.00 sec Maximum dead time extension
3413 Cmd.via control (Setting options depend
on configuration) None Close command via control
device
3414 Internal SYNC (Setting options depend
on configuration) None Internal synchronisation
3420 AR w/ DIST. YES
NO YES AR with Distance Protection
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3421 AR w/ SOTF-O/C YES
NO YES AR with switch-onto-fault overcur-
rent
3422 AR w/ W/I YES
NO YES AR with weak infeed tripping
3423 AR w/ EF-O/C YES
NO YES AR with earth fault overcurrent
prot.
3424 AR w/ DTT YES
NO YES AR with direct transfer trip
3425 AR w/ BackUpO/C YES
NO YES AR with back-up overcurrent
3430 AR TRIP 3pole YES
NO YES 3pole TRIP by AR
3431 DLC / RDT WITHOUT
RDT
DLC
WITHOUT Dead Line Check / Reduced Dead
Time
3432 ADT Op. mode w/ VoltageCheck
w/ RemoteClose w/ VoltageCheck Operating mode for Adaptive
Dead Time
3433 T-ACTION ADT 0.01 .. 300.00 sec; ∞0.20 sec Action time
3434 T-MAX ADT 0.50 .. 3000.00 sec 5.00 sec Maximum dead time
3435 ADT 1p allowed YES
NO NO 1pole TRIP allowed
3436 ADT CB? CLOSE YES
NO NO CB ready interrogation before re-
closing
3437 ADT SynRequest YES
NO NO Request for synchro-check after
3pole AR
3438 T U-stable 0.10 .. 30.00 sec 0.10 sec Supervision time for dead/live
voltage
3440 U-live> 30 .. 90 V 48 V Voltage threshold for live line or
bus
3441 U-dead< 2 .. 70 V 30 V Voltage threshold for dead line or
bus
3450 1.AR: START YES
NO YES Start of AR allowed in this cycle
3451 1.AR: T-ACTION 0.01 .. 300.00 sec; ∞0.20 sec A ction Time
3453 1.AR Tdead 1Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 1phase faults
3454 1.AR Tdead 2Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 2phase faults
3455 1.AR Tdead 3Flt 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3phase faults
3456 1.AR Tdead1T rip 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 1pole trip
3457 1.AR Tdead3Trip 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3pole trip
3458 1.AR: Tdead EV. 0.01 .. 1800.00 sec 1.20 sec Dead time after evolving fault
3459 1.AR: CB? CLOSE YES
NO NO CB ready interrogation before re-
closing
3460 1.AR SynRequest YES
NO NO Request for synchro-check after
3pole AR
Addr. Parameter Setting Options Default Setting Comment s
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3461 2.AR: START YES
NO NO AR start allowed in this cycle
3462 2.AR: T-ACTION 0.01 .. 300.00 sec; ∞0.20 sec Action time
3464 2.AR Tdead 1Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 1phase faults
3465 2.AR Tdead 2Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 2phase faults
3466 2.AR Tdead 3Flt 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3phase faults
3467 2.AR Tdead1Trip 0.01 .. 1800.00 sec; ∞∞sec Dead time after 1pole trip
3468 2.AR Tdead3Trip 0.01 .. 1800.00 sec; ∞0.50 sec Dead ti me after 3pole trip
3469 2.AR: Tdead EV. 0.01 .. 1800.00 sec 1.20 sec Dead time after evolving fault
3470 2.AR: CB? CLOSE YES
NO NO CB ready interrogation before re -
closing
3471 2.AR SynRequest YES
NO NO Re quest for synchro-check after
3pole AR
3472 3.AR: START YES
NO NO AR start allowed in this cycle
3473 3.AR: T-ACTION 0.01 .. 300.00 sec; ∞0.20 sec Action time
3475 3.AR Tdead 1Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 1phase faults
3476 3.AR Tdead 2Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 2phase faults
3477 3.AR Tdead 3Flt 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3phase faults
3478 3.AR Tdead1Trip 0.01 .. 1800.00 sec; ∞∞sec Dead time after 1pole trip
3479 3.AR Tdead3Trip 0.01 .. 1800.00 sec; ∞0.50 sec Dead ti me after 3pole trip
3480 3.AR: Tdead EV. 0.01 .. 1800.00 sec 1.20 sec Dead time after evolving fault
3481 3.AR: CB? CLOSE YES
NO NO CB ready interrogation before re -
closing
3482 3.AR SynRequest YES
NO NO Re quest for synchro-check after
3pole AR
3483 4.AR: START YES
NO NO AR start allowed in this cycle
3484 4.AR: T-ACTION 0.01 .. 300.00 sec; ∞0.20 sec Action time
3486 4.AR Tdead 1Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 1phase faults
3487 4.AR Tdead 2Flt 0.01 .. 1800.00 sec; ∞1.20 sec Dead time after 2phase faults
3488 4.AR Tdead 3Flt 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3phase faults
3489 4.AR Tdead1Trip 0.01 .. 1800.00 sec; ∞∞sec Dead time after 1pole trip
3490 4.AR Tdead3Trip 0.01 .. 1800.00 sec; ∞0.50 sec Dead ti me after 3pole trip
3491 4.AR: Tdead EV. 0.01 .. 1800.00 sec 1.20 sec Dead time after evolving fault
3492 4.AR: CB? CLOSE YES
NO NO CB ready interrogation before re -
closing
3493 4.AR SynRequest YES
NO NO Re quest for synchro-check after
3pole AR
Addr. Parameter Setting Options Default Setting Comments
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2.10.4 Information List
No. Information Type of In-
formation Comments
2701 >AR ON SP >Auto reclose ON
2702 >AR OFF SP >Auto reclose OFF
2703 >BLOCK AR SP >BLOCK Auto reclose
2711 >AR Start SP >External start of internal Auto reclose
2712 >Trip L1 AR SP >AR: Ext. Trip L1 for internal AR
2713 >Trip L2 AR SP >AR: Ext. Trip L2 for internal AR
2714 >Trip L3 AR SP >AR: Ext. Trip L3 for internal AR
2715 >Trip 1p for AR SP >Ext. 1pole Trip for internal Auto Recl.
2716 >Trip 3p for AR SP >Ext. 3pole Trip for internal Auto Recl.
2727 >AR RemoteClose SP >AR: Remote Close signal
2731 >Sync.release SP >AR: Synchronism from ext. sync.-check
2737 >BLOCK 1pole AR SP >AR: Block 1pole AR-cycle
2738 >BLOCK 3pole AR SP >AR: Block 3pole AR-cycle
2739 >BLK 1phase AR SP >AR: Block 1phase-fault AR-cycle
2740 >BLK 2phase AR SP >AR: Block 2phase-fault AR-cycle
2741 >BLK 3phase AR SP >AR: Block 3phase-fault AR-cycle
2742 >BLK 1.AR-cycle SP >AR: Block 1st AR-cycle
2743 >BLK 2.AR-cycle SP >AR: Block 2nd AR-cycle
2744 >BLK 3.AR-cycle SP >AR: Block 3rd AR-cycle
2745 >BLK 4.-n. AR SP >AR: Block 4th and higher AR-cycles
2746 >T rip for AR SP >AR: External Trip for AR start
2747 >Pickup L1 AR SP >AR: External pickup L1 for AR start
2748 >Pickup L2 AR SP >AR: External pickup L2 for AR start
2749 >Pickup L3 AR SP >AR: External pickup L3 for AR start
2750 >Pickup 1ph AR SP >AR: External pickup 1phase for AR start
2751 >Pickup 2ph AR SP >AR: External pickup 2phase for AR start
2752 >Pickup 3ph AR SP >AR: External pickup 3phase for AR start
2780 AR Mask. Error OUT AR: Ma sking error voltage transformer
2781 Auto recl. OFF OUT Auto recloser is switched OFF
2782 Auto recl. ON IntSP Auto recloser is switched ON
2783 AR is blocked OUT AR: Auto-reclose is blocked
2784 AR is NOT ready OUT Auto recloser is NOT ready
2787 CB not ready OUT AR: Circuit breaker not ready
2788 AR T-CBreadyExp OUT A R: CB ready monitoring window expired
2796 AR on/off BI IntSP AR: Auto-reclose ON/OFF via BI
2801 AR in progress OUT Auto-reclose in progress
2809 AR T-Start Exp OUT AR: Start-signal monitoring time expired
2810 AR TdeadMax Exp OUT AR: Maximum dead time expired
2818 AR evolving Flt OUT AR: Evolving fault recognition
2820 AR Program1pole OUT AR is set to operate after 1p trip only
2821 AR Td. evol.Flt OUT AR dead ti me after evolving fault
2839 AR Tdead 1pTrip OUT AR dead time after 1pole trip running
2840 AR Tdead 3pTrip OUT AR dead time after 3pole trip running
2841 AR Tdead 1pFlt OUT AR dead time after 1phase fault running
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2842 AR Tdead 2pFlt OUT AR dead time after 2phase fault running
2843 AR Tdead 3pFlt OUT AR dead time after 3phase fault running
2844 AR 1stCyc. run. OUT AR 1st cycle running
2845 AR 2ndCyc. run. OUT AR 2nd cycle running
2846 AR 3rdCyc. run. OUT A R 3rd cycle running
2847 AR 4thCyc. run. OUT AR 4th or higher cycle running
2848 AR ADT run. OUT AR cycle is running in ADT mode
2851 AR Close OUT Auto-reclose Close command
2852 AR Close1.Cyc1p OUT AR: Close command after 1pole 1st cycle
2853 AR Close1.Cyc3p OUT AR: Close command after 3pole 1st cycle
2854 AR Close 2.Cyc OUT AR: Close command after 2nd cycle
2861 AR T-Recl. run. OUT A R: Reclaim time is running
2862 AR Successful OUT Auto reclose cycle successful
2863 AR Lockout OUT Auto reclose Lockout
2864 AR 1p Trip Perm OUT A R: 1pole trip permitted by internal AR
2865 AR Sync.Request OUT AR: Synchro-check request
2871 AR TRIP 3pole OUT AR: TRIP command 3pole
2889 AR 1.CycZoneRel OUT AR 1st cycle zone extension release
2890 AR 2.CycZoneRel OUT AR 2nd cycle zone extension release
2891 AR 3.CycZoneRel OUT AR 3rd cycle zone extension releas e
2892 AR 4.CycZoneRel OUT AR 4th cycle zone extension release
2893 AR Zone Release OUT AR zo ne extension (general)
2894 AR Remote Close OUT AR Remote close sign al send
No. Information Type of In-
formation Comments
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2.11 Function control
The function logic with its associated process monitor coordinates the sequence of the protective functions,
processes functional decisions, and processes data received from the system. In particular, this includes:
Applications
• Line energization recognition,
• Processing of the circuit breaker positio n(s),
• Openpole detector,
• Voltage supervision,
• Fault detection logic,
• Tripping logic.
2.11.1 Line Energization Recognition
The line energization recognition function is relevant in the 6MD66x if the automatic reclosing function is acti-
vated. When a protected object is manually switched onto a fault, it is desirable to avoid a reclosure, i.e. to block
the AR.
The manual closing command must be indicated to the device via a binary input. In order to be independent of
the duration that the switch is closed, the command is set to a defined length in the device (adjustable with the
address 1150 SI Time Man.Cl). The figure be low shows the logic diagram.
Figure 2-68 Logic diagram of the manual closing procedure
If the device has an integrated automatic reclosure, the integrated manual closure logic of the 6MD66x auto-
matically distinguishes between an external control command via the binary input and an automatic reclosure
by the internal automatic reclosure so that the binary input „>Manual Close“ can be connected dire ctl y to
the control circuit of the close coil of the circuit breaker (Figure 2-69). Each closing operation that is not initiated
by the internal automatic reclosure function is interpreted as a manual closure, even it has been initiated by a
control command from the device.
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Figure 2-69 Manual closure with internal automatic reclosure
CB Circui t breaker
TC Circuit breaker close coil
CBaux Circuit breaker auxiliary contact
2.11.2 Detection of the circuit breaker position
For Protection Purposes
Various functions of the 6MD66x need information on the circuit breaker position in order to function optimally.
These are:
• the plausibility check before automatic reclosing,
• Circuit breaker failure protection,
• Verification of the dropout condition for the trip command.
A circuit breaker position logic is incorporated in the device (Figure 2-70). Dep ending on the type of auxiliary
contact(s) provided by the circuit breaker and the method in which these are connected to the device, there are
several alternatives of implementing this logic.
In most cases it is sufficient to report the status of the circuit breaker with its auxiliary contacts to the device via
binary input. This always applies if the circuit breaker is only switched 3-pole. Then the NO auxiliary contact of
the circuit breaker is connected to a binary input which must be configured to the input function „>CB 3p
Closed“ (No. 379). The other inputs are then not used and the logic is restricted in principle to simply forward-
ing the input information.
If the circuit breaker poles can be switched individually , and only a parallel connection of the NO individual pole
auxiliary contacts is available, the relevant binary input (BI) is allocated to the function „>CB 3p Open“ (no.
380). The remaining inputs are not used in this case.
If the circuit breaker poles can be switched individually and if the individual auxiliary contacts are available, an
individual binary input should be used for each auxiliary contact if this is possible an d if the device can and is
to trip 1-pole. With this configuration, the device can process the maximum amount of information. Three binary
inputs are used for this purpose:
•„>CB Aux. L1“ (No. 351) for the auxiliary contact of pole L1,
•„>CB Aux. L2“ (No. 352) for the auxiliary contact of pole L2,
•„>CB Aux. L3“ (No. 353) for the auxiliary contact of pole L3.
The inputs No. 379 „>CB 3p Closed“ and No. 380 „>CB 3p Open“ are not used in this case, even if they
are configured to binary inputs and receive signals.
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If the circuit breaker can be switched individually, two binary inputs are sufficient if both the parallel as well as
series connection of the auxiliary contacts of the three poles are available. In this case, the parallel connection
of the auxiliary contacts is routed to the input function „>CB 3p Closed“ (No. 379) and the series connection
is routed to the input function „>CB 3p Open“ (No. 380).
Please note that Figure 2-70 shows the complete logic for all connection alternatives. For each particular ap-
plication, only a portion of the inputs is used as described above.
The eight output signals of the circuit breaker position logic can be processed by the individual protection and
supplementary functions. The output signals are blocked if the signals transmitted from the circuit breaker are
not plausible: for example, the circuit breaker cannot be open and closed at the same time. Furthermore, no
current can flow over an open breaker contact.
Figure 2-70 Circuit breaker position logic
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Automatic Reclosure
Separate binary inputs comprising information on the position of the circuit breaker are available for the auto-
matic reclosure. This is important for
• The plausibility check before automatic reclosure (refer to Section 2.10),
When using 11/2 or 2 circuit breakers in each feeder , the automatic reclosure function is referred to one circuit
breaker. The feedback information of this circuit breaker can be connected separately to the device.
For this, separate binary inputs are available, which should be treated the same and configured additionally if
necessary . These have a similar significance as the inputs described above for protection applications and are
marked with „CB1 ...“ to distinguish them, i.e.:
•„>CB1 3p Closed“ (N o. 410) for the series conn ection of the NO auxiliary contacts of the CB,
•„>CB1 3p Open“ (No. 411) for the series connection of the NC auxilia ry contacts of the CB,
•„>CB1 Pole L1“ (No. 366) for the auxili ary contact of pole L1,
•„>CB1 Pole L2“ (No. 367) for the auxili ary contact of pole L2,
•„>CB1 Pole L3“ (No. 368) for the auxili ary contact of pole L3.
2.11.3 Open-pole Detector
The open-pole detector determines on the basis of the measured current and voltage whether the line section
to be protected is isolated.
Parameter 1130 PoleOpenCurrent serves to specify the residual current that will be used as the criterion
whether the line is de-e nergized.
The "open_pole_i“ signal of a phase is set as soon as the phase current drops below the configured threshold
"PoleOpenCurrent". The signal is stabilised by means of a hysteresis; stabilisation over time is not provided.
The negative effects of current transformer saturation and limitation, which are to be expected in the 6MD66x
when the currents exceed approx. 1.2In, are not taken into account because the maximum current limit
PoleOpenCurrent is 1.0In.
Figure 2-71 Creation process of the "open_pole_i“ signals
In the stabilisation of the open-pole detector, the following hysteresis is used for the parameters
PoleOpenCurrent:
• Pickup thresholdParameteri s e d thresh ol d
• Dropout threshold1.1*parameterised threshold
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2.11.4 Voltage Supervision
If the automatic reclosure function of the 6MD66x is configured with the operation mode "Dead line check", it
also makes sense to set the appropriate parameters for activation the voltage supervision function. If the
voltage supervision detects a failure of the phase-to-earth voltages, the automatic reclosure is blocked. V oltage
supervision is based on a plausibility check between the phase currents and the phase-to-earth voltages.
Where the circuit breaker auxiliary contacts are available, i.e. configured to binary inputs, they should also be
used for supervision.
A failure of the measured voltage is detected if the following condition s are met at the same time:
• All three phase-to-earth voltages are less than U<max (3ph),
• At least 1 phase current is larger than PoleOpenCurrent or at least 1 breaker pole is closed (can be set),
• No protection function has picked up,
• This condition persists for a settab le ti me T V-Supervision (default setting: 3 s).
The time T V-Supervision is required to prevent that a voltage failure is detected before the protection picks
up.
Figure 2-72 Logic diagram of the fuse failure monitor
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2.11.5 Pickup Logic for the Entire Device
Phase Segregated Pickup
The pickup logic combines the fault detection (pickup) signals of all protection functions. In the case of those
protection functions that allow for phase segregated pickup, the pickup is output in a phase segregated manner.
Thus, the alarms „Relay PICKUP L1“, „Relay PICKUP L2“ and „Relay PICKUP L3“ are availabl e.
General Pickup
The pickup signals are combined with OR and lead to a general pickup of the device. It is signalled with „Relay
PICKUP“. If no function of the device is picked up any longer, „Relay PICKUP“ disappea rs (indication
„OFF“).
General device pickup is a precondition for a series of internal and external functions that occur subsequently.
The following are among the internal functions controlled by general device pickup:
• Opening of a trip log: from general device pickup to general device dropout, all fault indications are entered
in the trip log.
• Initialization of fault record: the storage and maintenance of fault values can also be made dependent on the
occurrence of a trip command.
• Generation of spontaneous indications: Certain fault indications can be displayed as spontaneous indica-
tions (see margin heading „Spontaneous Indications“). In addition, this indication can be made dependent
on the general device trip.
• Start action time of automatic reclosure (if available and used).
Spontaneous Indications
Spon taneous indications are alarms th at are displayed automatically after a general pickup of the device or
after the trip command of the device. In the case of 6MD66x they are the following:
„Relay PICKUP“: Protection function that picked up;
„S/E/F TRIP“: Protection function which tripped (only device with graphical display);
„PU Time“: Operating time from the general pickup to the dropout of the device, in ms;
„TRIP Time“: the operating time from general pickup to the first trip comma nd of the
device, in ms;
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2.11.6 Tripping Logic of the Entire Device
3-pole Tripping
The following protection functions implemented in the 6MD66x carry out a 3-pole trip command:
• T ripping of the breaker failure protection for the local circuit breaker, if the conditions for 1-pole tripping are
not fulfilled,
• Tripping of the breaker failure protection for the adjacent circuit breakers,
• 3-pole transfer trip of the automatic reclosure function.
If a 1-pole tripping is generally not possible or not desired, the output function Relay TRIP 3ph. is used for the
output of commands to the circuit breaker. In these cases the following sections regarding 1-pole tripping are
not of interest.
1-pole Tripping
In the 6MD66x, 1-pole tripping is only provided for tripping of the local circuit breaker , if the conditions for a trip
are fulfilled (1-pole starting via binary input, and parameter 3903 1p-RETRIP (T1) of the breaker failure pro-
tection set to "yes"). The general phase-segregated trip command alarms are „Relay TRIP L1“, „Relay
TRIP L2“ and „Relay TRIP L3“. These alarms can be allocated to LEDs or output relays. In the event of
3-pole tripping all three ala r ms pick up. .
General Trip
All trip signals for the functions are connected by OR and generate the message „Relay TRIP“. This can
be allocated to LED or output relay.
Terminating the Tripping Command
Once a trip command is initiated, it is phase segregatedly latched (in the event of 3-pole tripping for each of the
three pol es) (refer to Figure 2 -73). At th e same time, the minimum trip command duration TMin TRIP CMD is
started. This ensures that the trip command is output for a sufficiently long time to the circuit breaker even if
the tripping protection function resets very rapidly. The trip commands can only be terminated when the last
protection function dropped out (i.e. functions no longer pick up) AND the minimum trip signal duration has ex-
pired.
A 1-pole trip command leads to the 1-pole trip command alarms „Relay TRIP 1pL1“ to „Relay TRIP
1pL3“.
A further condition for the reset of the trip command is that the circuit breaker has opened, in the event of single-
pole tripping the relevant circuit breaker pole. In the function control of the device, this is checked by means of
the circuit breaker position feedback (Section „Detection of the Circuit Breaker Position“) and the flow of cur-
rent. In address 1130 PoleOpenCurrent, the residual current threshold which may definitely not be exceed-
ed when the circuit breaker pole is open, is set. Address 1135 Reset Trip CMD determines under which
conditions a trip command is reset. If CurrentOpenPole is set, the trip command is reset as soon as the
current disappears. It is important that the value set in address 1130 PoleOpenCurrent (see above) is un-
dershot. If Current AND CB is set, the circuit breaker auxiliary contact must send a message that the circuit
breaker is open. It is a prerequisite for this setting that the position of the auxiliary contact is allocated via a
binary input. If this additional condition is not required for resetting the tri p command (e.g. if test sockets are
used for protection testing), it can be switched off with the setting .
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Figure 2-73 Storage and termination of the trip command
Trip-dependen t Indications
The recording of indications ma sked to local LEDs, and the maintenance of spontaneous indications, can be
made dependent on whether the device has issued a trip command. The information will then not be output if
a protection function (i.e. the breaker failure protection) has picked up in t he event of a fault, but the 6MD66x
has not tripped because the pickup was reset first.
Figure 2-74 Logic diagram of the no–trip–no–flag feature (command-dependent alarms)
Switching Statistics
The number of trips of the local circuit breaker initiated by the device 6MD6 6x are counted. Thei r number is
counted separately for each breaker pole.
If the device is equipped with the integ r ated automatic reclosure, the automatic close commands are also
counted, separately for reclosure after 1-pole tripping, after 3-pole tripping as well as separately for the first re-
closure cycle and other reclosure cycles.
The counter and memory levels are secured against loss of auxiliary voltage. They can be set to zero or to any
other initial value. For more details, refer to the SIPROTEC 4 System Description.
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2.11.7 Setting Notes
Trip command duration
The setting of the minimum trip signal duration TMin TRIP CMD (address 240 was already discussed in Sub-
section 2.1.2. This setting applies to all protection functions that initiate tripping.
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2.12 Inter-relay communication through port C
Inter-relay communication through port C, abbreviated IRC, allows the exchange of information between
SIPROTEC 4 devices without a SICAM control centre. For this purpose, devices are connected to each other
via an RS485 connection or an external converter and fibre optic cable. Process information such as indications
and measured values (RMS values ) are transferred via this bus.
Configuration of the Inter-relay communication through port C is performed with the DIGSI operating program.
To be able to manage 32 Users/Fault indications, you need DIGSI as from version 4.5.
Communication works cyclically on the basis of an image protocol. The cycle time is constant in fault-free op-
eration and dependent on the bau d rate, the amount of process information and the number of connected de-
vices. Please refer also to "Relationship between the number of users and transmission time“. All SIPROTEC 4
devices communicating with each other are called users of an IRC combination. An IRC combination can
handle a maximum of thirty two users.
Applications
• An Inter-relay communication through port C setup always makes sense if the same process information
needs to made available to several SIPROTEC 4 devices. Instead of sending the same process information
to several SIPROTEC 4 devices per single line wiring, it is only sent to a single SIPROTEC 4 device. The
other SIPROTEC 4 device s rece i ve th e re qu i re d process information via the serial IRC bus.
• An application for the Inter-relay communication through port C could be the interlocking conditions within a
bay with a 11/2 circuit breaker method operate d with three bay controlle rs.
• A quick view of the IRC combination provides the Web Monitor (see Chapter 2.15). Combination data, device
data, master data, combination structure and messages of each user are displayed there.
• The OLM (Optical Link Module) interface modules required for an optical connection of the IRC user can be
found in the accessory list in the Appendix.
Prerequisites
Certain requirements must be fulfilled to build an IRC combination.
The participating SIPROTEC 4 devices must be suited toward Inter-relay communication through port C (avail-
able only for 6MD66).
A corresponding communications module must be installed in the SIPROTEC 4 devices.
The DIGSI operating program must be installed on the PC.
The project must contain at least two SIPROTEC 4 devices which fulfill the requirements for Inter-relay
communication through port C and an IRC combination (can be created via configuration).
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2.12.1 Function Principle
The IRC is based on the Master-Slave principle. One SIPROTEC 4 device of the IRC combination operates as
the master. All other nodes are slaves. The master sends queries to all the slaves one after the other. On re-
ceiving this query, each slave transmits its particular process information meant for the IRC combination. The
master collects all the process information it receives and collates it, together with its own information, into a
single message. It then sends this message to all the slaves. From this message, each slave then extracts the
process information which is relevant to the particular slave.
Note
Due to the cyclical method of operation of the IRC, only those indications are transferred whose value changes
are pending longer than the actual cycle time, which can be 50 ms or more.
Electrical RS485 connection
Figure 2-75 Connection of bay controllers to in ter-relay communication (electrical)
The connection between the devices occurs electrically via an RS485 interface. The electrical connections are
terminated with resistors at the ends (first and last device), which are set via jumpers in the 6MD66x device.
The jumper settings can be found in Chapte r Installation and Commission in g.
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Optical conn ection OLM
Figure 2-76 Connection of bay controllers to inter-relay communication (optical)
A 7XV5651 is used as interface converter (optical/electrical). The 6MD66x is connected to the 7XV5651 by
means of an electrical RS485 interface. The electrical connections must be terminated with resistors. These
terminating resistors are adjusted with jumpers in the 6MD66x and with DIL switches (S1, switch 1 and 2) in
the 7XV5651. The jumper settings are described in the chapter Installation and Commissioning.
The connection of the interface converters is optical (in series) and its operation is asynchronous. A theoretical
baud rate of 9600 Baud to 115200 Baud is set with a DIL switch (S2, switch 5 off, 6 on, 7 on, 8 of f). A matching
setting can be selected in DIGSI using the interface settings.
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Application Example
Figure 2-77 11/2– Circuit breaker method, disconn ector and earth electrode not shown
2.12.2 Configuring Inter-relay Communication
The procedure for configuring the devices connected with each other in the Inter-relay communication through
port C is explained in the following sections.
Insert SIPROTEC 4 device
Objects of type SIPROTEC device are inserted into the project structure from the device catalog via drag and
drop. Right-click an object of type Folder. In the context menu, click Insert new object →SIPROTEC device.
The window D evice catalog opens. Alternatively click Device catalog in the context menu.
When selecting a device type, note that this must be suitable for a Inter-relay communication through port C.
After placing the object within the project, the dialog box Properties - SIPROTEC device ope ns, as usual.
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Figure 2-78 Properties SIPROTEC device dialog box
Importing a SIPROTEC 4 device
In addition to inserting a new device, a device which is already available in another project can be imported into
the project structure. It is to be noted here that a device can then only participate in an IRC combination if it is
imported as a SIPROTEC device. A SIPROTEC variant cannot participate in an IRC combination, as the VD
address is not unique.
Right-click an object of type Folder . In the context menu, click Import device.... The Import device dialog box
opens.
Select the alternative As SIPROTEC device and con firm with OK.
Specifying the Device Model
Select an order number (MLFB number) to specify the device model in DIGSI. It is important to select the entry
Inter-Relay Communication from the drop-down list box Function interface. Click OK when you have
defined the entire device model.
Proceed in a similar manner with the rest of the objects of type SIPROTEC device which are to be users of the
IRC combination.
An object of typ e IRC combination is inserted with the DIGSI Manager . The nodes of an IRC combination and
the required transmission parameters are specified here.
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Inserting an IRC Combination
An object of the typ e IDC combination defines the stations of an IDC combination and the required communi-
cation parameters. Furthermore, this object contains information from the settings group concerning the updat-
ing of an IDC combination.
You can only insert an object of type IRC combination within an object of type Folder.
Right-click an object of type Folder. In the context menu, click Insert new object → IRC comb ination.
Within a project you can insert any number of objects of type IRC combination.
The placement of the object within the project does not have any effect on its functionality. Each SIPROTEC 4
device suitable for an IRC combination is available within a project as a node to each object of type IRC com-
bination.
You must only remember that each SIPROTEC 4 device can only function as a node of a single IRC combina-
tion at any one time. However, you should select the placement taking clarity of layout into account.
Several IRC combinations can also be managed within a single project. Each IRC combination is represented
here by its own object of type IRC combination.
IRC Failure Indication
For devices selected via the MLFB numbers, ad ditional failure indications Bay Bus Disturbance (n = 1 - 32
for possible number of devices) are generated in the Device group of the device matrix. These failure indi ca-
tions can be allocated individually.
These failure indications are set to ON by the IRC failure monitor at the beginning of the fa ilure and to OFF
during establishment of a connection after the transmission of the current state of process information. On
failure of one of the devices, an alarm to that effect is issued (e.g. Bay Bus D04 to ON) which can be seen in
all other devices. With the configuration you now ensure that only those interlock conditions are blocked which
require information from the affected device. All other interlocks receiving information via the IRC are available
as before.
The master repeats the slave query in case of faulty messages. The number of repetitions is configurable. A
large number of repetitions (with message errors or a poor connection) extends the cycle time of the bus. Only
one repetition should be set for fibre-opti c connection s.
After a connection failure, the master attempts to establish a new connection after a configurable number of
bus cycles (pauses). As each (failed) connection establishment extends the bus cycle time, the number of
pauses should be as large as possible. Otherwise, a large number of pauses extends the time until a failed
device operates on the bus again. A good initial value here is 10 bus cycles.
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Figure 2-79 IRC fault indications
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2.12.3 Correlation between Number of Nodes and Transmission Time
The correlation between the number of IRC nodes, the number of information items configured to IRC, the con-
nection baud rate and the cycle time achieved for information transmission has been established by test s. The
test result is shown in the figure below
Figure 2-80 Correlation with number of IRC nodes
The figure above shows that a high baud rate must be set for large systems with many users and many IRC
allocated information items to receive acceptable cycle times. For more than 16 users, the maximum possible
baud rate of 3.125 MBd should be selected (possible only when using the HDLC transmission mode). The
HDLC mode is normally recommended; the UART mode offers only the advantage of reducing the workload of
CPU users by setting automatic address detection. However, this is usually not necessary.
The number of information items is to be understood per device, i.e. 16 or 32 information items per device This
means that the maximum amount of information that can be transmitted simultaneously is 32 x 32 = 1024 items.
The direct correlation between cycle time and baud rate is illustrated in the figure below.
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Figure 2-81 Correlation with IRC communication baud rate
Here again it can be seen that in large systems with a large amount of indications to be transmitted the
maximum baud rate of 3.125 MBaud must be set to achieve acceptable cycle times for the interlocking appli-
cation.
2.12.4 Selecting a Combination Node
An IRC combination can include up to thirty two users as from DIGSI V4.5. Older DIGSI versions allows a
maximum of sixteen users. These users are stored as a property of the object type IRC combination. To select
the user of an IRC combination, open the Properties dialog box of the respective object.
Right-click the object of type IRC combination. Click Obje ct prop erties in the context menu. The dialog box
Properties - IRC combination opens. Select the Node tab.
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Figure 2-82 Properties dialog box — IRC combination, Node tab
Available Devices
The names of all SIPROTEC 4 devices which can operate as node s for the processed IRC combination are
shown in the bo x Available devices. T hese are the devices from the current project which fulfil the require-
ments for Inter-relay communication through port C, and which are not already nodes of another IRC combina-
tion. In addition to the name of a SIPROTEC 4 device, its position within the project is also displayed.
Selecting a Node
To add a SIPROTEC 4 device to the IRC combination, select its name in the box Avai lable devices. Then click
Add.
To remove a SIPROTEC 4 device from the IRC combination, select its name in the Combination nodes box.
Then click Remove.
Several devices can be added to, or removed from, the IRC combination simultaneously through multiple se-
lection. Alternatively, add or remove a SIPROTEC 4 device with a double-click on its name in the appropriate
box.
An IRC combination can comprise a maximum of thirty-two nodes. When this number has been reached,
a fault indication is displayed as soon as you want to add another SIPROTEC 4 device.
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Specifying a Master
Each IRC combination requires a SIPROTEC 4 device as a master. The first SIPROTEC 4 device you select
is automatically defined as the master. The master device is labe lled in the box Combination nodes with a
blue circle to the left of the name of the device.
If another SIPROTEC 4 device is to be used as a master , select its name in the box Combination nodes. Then
click Master.
If the device labelled as the master is removed from the combination, the first SIPROTEC 4 device in the list of
nodes is automatically defined as the new master.
Basically, any device in the IRC combination can function as a master . The master function requires additional
processor performance. Y ou should therefore select a device which is subjected to the least usage by the actual
program run.
Accepting Settings
To apply your settings, click OK. The Properties - IRC combination dialog box is closed.
2.12.5 Allocating Information of the Individual Devices Involved
The purpose of the IRC combination is to distribute process information betw een SIPROTEC 4 devices. You
must therefore make the following decisions for each SIPROTEC 4 device participating in an IRC combination:
• Which process information from the SIPROTEC 4 device should be made available to the other devices in
the IRC combination?
• Which process information from the SIPROTEC 4 device should be assignable to process information re-
ceived from the IRC combination?
You make this selection for each SIPROTEC 4 device individually in the DIGSI allocation matrix.
Open the SIPROTEC device with the DIGSI device processing func tion. Double-click the object Allocate to
display the device matrix.
IRC Columns
One column with the name O is provided in the device matrix for the IRC combination as sourc e and IRC
combination as destination. These columns are fundamentally only visible when the functionality of the IRC
has been defined in the device model. These columns are shielded as soon as you select the information filter
Only commands. This is explained by the fact that commands cannot be swapped within an IRC combination.
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Allocatable Information Types
The following information types can be allocated within an IRC combination:
• Single point indication (only SI, not SI_F)
• Double point indication (only OI, not OI_F)
• Internal single indication (only IE, not IE_F), must be selected as destination (not EM!)
• Internal double point indication
• Bit pattern indication
• Transformer tap indication
• Limit value
• User-defined limit value
• Measured value
• User-defined measured value
• External metered valu e (only ExMV, not MVMV and PMV)
Routing Information to the IRC Source
Information that is routed to IRC as source can be assigned to information of other nodes of th e IRC combi-
nation during the course of the run process. Information received from an IRC combination is represented
within the SIPROTEC 4 device by information specific to this device. The assignment between received infor-
mation and device-specific information takes place with the combination matrix.
Routing Information to the IRC Destination
Information that is routed to IRC as destination can be forwarded to other nodes of the IRC combination. This
forwarding procedure is also defined using the combination matrix.
Routing Ru les
Several rules must be observed when routing information. A consistency check monitors whether these rules
are complied with.
• Information initiated by a device or a function (e.g. device ready) cannot be routed as a source.
• Information can only be routed to the IRC as source if it has not already been routed to another source.
Similarly, any item of information routed to the IRC as source may not be routed to any other sources.
• An item of information cannot be simultaneously routed to the IRC as sour c e and to the IRC as target.
• Overall, 32 items of infor mation can be routed to the IRC as target.
• Source and destination must be the same data type (e.g. correct: type SI to SI or ExtSi; incorrect: type SI t o
OI).
• Indications coming from the source IRC should be configured as external indications (ExtSi, ExtDI).
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2.12.6 Routing Information between the Devices Involved
You have specified information for each in dividual SIPROTEC 4 device within an IRC combination with the
device matrix.
You must decide,
• what information is to be transmitted from which source device to which destination device, and
• what information is to be created in the desti nation device by the information it has received.
Note
The combination matrix is structured similarly to the device matrix. The mechanisms, e.g. to hide and show
lines and columns, are identical to those of the device matrix. An extensive description of combination matrix
operation can be found in the SIPROTEC System Description /1/.
Combination Matrix
Several requirements must be fulfilled in order to open the combination matrix:
• The combination matrix may not already have been opened for another IRC combination.
• The IRC combination for which the combinatio n matrix is to be opened must comprise at least two SIPRO-
TEC 4 devices.
• No SIPROTEC 4 device which functions as a node in the combination may be opened for editing.
Right-click an object of type IRC combination. Click Open object in the context menu. Alternatively, you can
double-click the object. The combination matrix opens.
Figure 2-83 IRC combination matrix
Structure of the Combination Matrix
After opening the combination ma trix you will see that it is divided up both horizontally and vertically. Several
columns or rows can be visually combined into blocks by clicking the button at the top or left margin of the com-
bination matrix.
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Horizontally, the matrix is divided into two main areas: Source and Destination. Information is compiled verti-
cally in groups.
•Source
Information serves as the source. It is describe d by the displa y text, the long text and the type. In the com-
bination matrix, all information is displayed whic h you have routed to the destination IRC combination for
each SIPROTEC 4 device individuall y in the device matrix.
•Destination
The destination designates the SIPROTEC 4 device to which information is forwarded. A destination column
is shown in the combination matrix for each node device in an IRC combination.
•Group
A group represents the scope of information that a node of an IRC combination makes available to the other
nodes. A group is therefore shown in the combination matrix for each SIPROTEC 4 device contained in an
IRC combination. Each group bears the same name as the related SIPROTEC 4 device.
Routing Information Items
Information which has been routed in the device matrix to the IRC as destination is made available in the com-
bination matrix as source information. Conversely, all information which has been routed in the device matrix
to IRC as source is ma de available in the combination matrix as destination information. Note that the desti-
nation information is not visible until a routing action takes place.
To route a source information to a specific SIPROTEC 4 device in the combination matrix, click the common
cell of Information and Destination device. The cell is transformed into a drop-down list box. It offers the
display texts of the destination information routed as the source in the destination device and which is of the
same data type. Select one of these information packets. Repeat this procedure for all the remaining assign-
ments.
Routing Ru les
Some rules must also be observed when routin g information within the combination matrix. Their compliance
is also monitored, however, as with the device matrix via automatic consistency checking.
• Only one source information packet may be assigned to a destination information packet. However , a source
information packet can be routed to several destination information packets.
• The sort and type of source and destination information packets must be identical. You cannot, for example,
route a single message to an output indication. However , there are two exceptions: incoming-outgoing indi-
cations and in-out indications can be routed between each other. This also applies to double point indica-
tions and double point indications with fault posi tions.
Saving and Terminating Routings
All your routings must be explicitly saved. Click File → Save as on the menu bar for thi s.
To close the combination matri x click File → Exit in the menu bar.
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2.12.7 Setting Communication Parameters for Individual Devices
A special communication module must be installed in each SIPROTEC 4 device provided for Inter-relay
communication through port C. This module is already installed and correctly allocated if you ordered a
SIPROTEC 4 device with Inter-relay communication through port C. For this reason, this section is only rele-
vant for upgrading. The slot to which this communication module is connected in the SIPROTEC 4 device is
the only setting which needs to be made in the device-specific communication parameters.
Right-click the object of type SIPROTEC device for which you want to edit the parameter for the Inter-relay
communication through port C. Click Object properties in the context menu. The dialog box Properties -
SIPROTEC device opens. Select the Inter-relay communication tab.
Note
This tab is only available if the following requirements are fulfilled simultaneously:
The current SIPROTEC 4 device is fundamentally suitable for Inter-relay communication through port C.
Inter-relay Communication has been selected as the function interface in the Communications modules tab.
The SIPROTEC 4 device is already a node in an IRC combination.
Setting a Slot
Note
A modification to the slot setting, in comparison to the delivery setting, should only be made if there is just cause
and only with the required system knowledge!
The set slot and the actual slot are not automatically checked for consistency . Please carefully check your set-
tings yourself.
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In the Slot drop-d own list box select the name of the slot in which the communications module is installed in
the SIPROTEC 4 device.
Figure 2-84 Properties - SIPROTEC device dialog box, Inter-re lay Communication tab
To apply your settings, click OK. The Properties - SIPROTEC device dialog box is closed.
The parameter is not activated until the parameter set is updated.
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2.12.8 Setting communication parameters for a combination
While the slot to which this communications module is connected is the only setting which needs to be made
in the device-specific communication parameters, several settings need to be taken into consideration for the
combination as a whole. The settings which need to be made are summa r ized in two groups:
•Interface settings
These serial interface settings must be identical for all the SIPROTEC 4 devices in the IRC combination.
Otherwise the devices are not able to communicate with one another. They are therefore defined centrally
for the combination.
•Bus parameters
Settings relating to the bus arbitration only affect the parameter set of the SIPROTEC 4 device which serves
as the master in the IRC combination. However, as each participating SIPROTEC 4 device can fundamen-
tally be defined as the master, these settings are also made during configuration of the IRC combination.
Right-click the object of type IRC combination. Click Obje ct prop erties in the context menu. The dialog box
Properties - IRC combination opens. Select the Transmission parameters tab.
Figure 2-85 Properties dialog box — IRC combination, Transmission parameters tab
Note
We recommend using the preset transmission parameters, namely HDLC. The transmission speed - baud rate
- that should be achieved must be determined and set in accordance with system conditions.
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Specifying Interface Settings
The following interface settings can be set:
•Transmission Schemes
Select the name of a transmission mode from this drop-down list box. You can choose between UART and
HDLC. HDLC ensures an approx. 15% greater transmission density than UART using the same baud rate.
•Baud rate
Select a baud rate from this drop-down list box. Which baud rates are available for selection depend on the
transmission mode you have selected. The higher the transmission rate, the shorter the cycle time or the
more nodes can be connected to the bus with the same cycle time. The processor load of the master in-
creases when the cycle time is small and when many slaves are connected to the bus. In exceptional cases,
the parameter Minimal cycle time must be increased for this reason.
•Automatic address dete ction
If this check box is activated, the SIPROTEC 4 device only considers a message it receives if it is addressed
to it. This action relieves the load on the CPU of the SIPROTEC 4 device. This option can only be selected
if UART is set as the transmission mode.
Setting the Bus Arbitration
The following parameters can be set for bus arbitration:
•Maximum number of message repeats
If a message is corrupted during transmission, it can be sent again. In this spin box you can enter how many
attempts should be made to transmit a message. A maximum of three new transmission attempts are al-
lowed.
•Number of pauses before a new query is sent to a failed device
If a SIPROTEC 4 device in the combination has failed, the master can exempt it from queries for a certain
number of cycles. To do this, select a value between 0 and 254 in the drop -down list box.
•Minimum cycle time
The cycle time defines the total duration of a cycle, during which all slave devices are queried by the master
device. Select a value between 10 and 10,000 ms. from the spin box. As the length of the cycle time depends
on the capacity of the master, the cycle time actually achieved may be higher than the value set in the pa-
rameters. To ensure that the master uses the shortest possible cycle time, select the check box Minimum
cycle time, continuous.
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2.12.9 Checking and Updating Parameter Sets
The parameter sets of individual or all combination nodes must be updated either when configuring an IRC
combination for the first time, or if the settings of single combination parameters have been altered, according
to the modifications which have been made .
Right-click the object of type IRC combination. Click Obje ct prop erties in the context menu. The dialog box
Properties - IRC combination opens. Select the Updating tab.
The Updating tab gives an overview of the update status of the parameter sets of the individual combination
nodes.
Figure 2-86 Properties dialog box — IRC combination, Updating tab
Checking the Update Status
Every device in DIGSI which has a current parameter set is designated in column P with a check mark. If this
parameter set has already been transmitted to the real SIPROTEC 4 device, you can manually make a note of
this by entering a check mark in column G. To do this, click in the corresponding check box. This selection can
only be set if the parameter set in DIGSI 4 is up to dat e.
It is automatically deleted if changes have been made which affect the parameter set of the SIPROTEC 4
device concerned.
DIGSI itself detects which p arameter sets are no longer up to date. As soon as the update command has been
issued, these parameter sets are updated one after the other. However, it is important for you to know after
which modification which SIPROTEC 4 device nee ds to be reinitialized.
Here is a brief overview:
• Changing the slot for the communications module: parameter set of the node concerned.
• Modification of a serial interface setting on the tab Transmission p arameters: parameter sets of all nodes.
• Modification of a bus parameter in the tab Transmission parameters: parameter set of the master.
• Routing changes in the combination matrix: parameter sets of both nodes concerned.
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• Routing changes in the device matrix of a SIPROTEC 4 device to IRC as the destination: parameter set of
the node concerned.
• Deleting or adding a node: parameter sets of all nodes.
Updating Parameter Sets
To update all outdated parameter sets, click Update all parameter sets. Messages detailing the progress of
updating are shown in the Report window. The parameter sets are updated in DIGSI.
Figure 2-87 Report, IRC update tab
If you have made changes in the combination matrix, you can update these changes immediately in the affect-
ed parameter sets. Click File → Save and Generate Parameter Sets on the menu bar for this.
2.12.10 Printing Combination Information
You can print the follo wing information relatin g to an IRC combination:
• Transmission parameter settings of the IRC combination.
• The names of the SIPROTEC 4 devices in the IRC combination, including the classification letters of the
selected slots.
• Update informati on for each individual node in the IRC combination.
Right-click an object of type IRC combination. Click Delete → Object contents in the context menu. The Print
Combination Information dialog box opens.
Figure 2-88 Print combination information dialog box
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Specifying the Scope of Printing
You specify the scope of the information to be printed by selecting individual checkboxes. Subsequently click
OK. The Print Manager window opens. This window allows you to call up a page preview for the information
you want to print. You can influence the presentation in the Pri nt Manager window.
Figure 2-89 IRC combination, print manager
Scrolling
Click Next to show the next print page. This button is inactive if the last available print page is already being
displayed. Then click Previous to show the previous print page. This button is inactive if the first print page is
already being displayed.
Changing the Display Mode
Click One page / two pages to alternate between a single page view and a two page view.
Changing the Scale of the Display
Click Zoom to zoom the display of the print page in defined stages. This button is inactive as soon as the largest
possible display size has been reached. Alternatively , click with the left mouse button for as long as the mouse
cursor is in the display area. When you do this the display of the print page is also zoomed in defined stages.
Click Zoom out to zoom out the display of the print page in defined stages. This button is inactive as soon as
the smallest possible display size has bee n reached.
Note
An enlarged or shrunken view has no influence on the print results.
Printing Information
Click Print to print the displayed information.
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2.12.11 Time Synchronisation
In addition to transmitting the process information, the IRC can synchronise the time in the connected devices.
The master, which synchronises its time via a radio clock for example, passes on the time each minute to the
connected slaves. Time synchronisation via IRC must be set in the slaves for this.
Open the SIPROTEC device with the DIGSI device processing function. Double-click in the data window on
Time synchronisation. The Time Synchron isation & Time Format dialog box is displayed.
Select the ent ry Inter-relay communication from the Time synchronisation source list box and confirm the
entry with OK.
Figure 2-90 Time synchronisation & time format dialog box
Note
The time synchronisation source stated in the master must not be Inter-relay communication through port C.
Rather, the configured source must be the one use d by the master itself, e.g. "T ime signal DCF 77".
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2.13 Inter relay communication with GOOSE through Ethernet
The release of the software version V4.6 makes it possible for all 6MD66x bay controllers to allow for commu-
nication according to the new IEC61850 standard. An addition to connection to the substation controller , it also
enables a connection between bay controllers and protective devices. This allows for an inter relay communi-
cation functionality via this Ethernet interface as well, as described in the previous Chapter 2.12. In the
IEC61850 communication standard, this field to field communicatio n is called GOOSE (Generic Object Orien-
tated Substation Event).
Advantages of the GOOSE communication compared to the previous inter relay communication:
— No dedicated interface required; communication takes place through the system interface
— Large selection of possible partner devices. Other SIPROTEC4 devices, such as 7SJ or 7SA, are also
equipped with IEC61850 GOOSE. This communication standard is also being adopted by other manufacturers.
— No master-slave scheme; each node can send and receive autonomously.
This section shows on a simple example how to build up a substation switchgear interlocking scheme based
on GOOSE communication with 6MD66x bay controllers.
Applications
• Inter-relay communication with IEC6185 0-GOOSE can be used for the exchange of information between
bay controllers. No substation controller is required for this. One main application for bay controllers is cross-
bay switchgear interlocking. However, other process information can be exchanged with GOOSE as well (as
with IRC in general), such as measured or metered values.
Prerequisites
The 6MD66x devices participating in GOOSE inter-relay communication must meet the following requirements:
Device software version at least V4.6
Equipped with an EN100 communication module for co mmunication with IEC61850 (MLFB: 11th digit = 9, ex-
tension –L0R, optical EN100 module planned for the future)
DIGSI version at least V4.6 with station configuration editor (ordering option)
At least two such devices must have been created in the DIGSI project. Also, an IEC61850 substation must be
created ("Insert new object“ in DIGSI Manager). This new object allows to access the station configurator (by
double-clicking after configuration of the substation, refer to following chapters).
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2.13.1 Function Principle
Unlike IRC, GOOSE does not use the master-slave principle. Each node sends and receives information au-
tonomously according to its configuration in the system configurator.
The devices are connected to switches using Etherne t patch cables, as shown in the figure belo w.
Figure 2-91 Nodes of an IEC61850 Ethernet
The Ethernet link is used both for inter-relay communication with GOOSE and for communication with the
SICAM PAS station unit.
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2.13.2 Parameterizing the GOOSE Communication
Let us consider the example of a switchgear interlocking application in which 2 feeders of a double busbar ex-
change information with th e bus coupler (see the figure below).
Figure 2-92 Single line display of the example "Switchgear interlocking with GOOSE”
In the two feeder bays C01 and C03, switching of the busba r disconnectors Q1 and Q2 i s al lowed if the bus
coupler C02 is closed. The coupler must not be opened if both busbar disconnectors are closed in either bay
C01 or C03 (bus coupler lock-in).
The information required for these interlocking condition s is to be exchanged directly between the three
6MD66x bay controllers via IEC61850-GOOSE. Each of the three bays has a bay controller assigned to it, as
shown in the figure below.
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Figure 2-93 Assignment of GOOSE nodes to system
From the bus coupler C02, the information "CouplClsd“ (ON if the coupler is closed) is sent to the two feeders.
This information is generated in the CFC of the bus coupler C02 from the feedback signals of the three switch-
ing devices. The two feeders send to the bus coupler the information "C01BBDiscClsd“ and "C03BBDiscClsd“,
which is likewise generated in the CFC (ON if the busbar disconnectors Q1 and Q2 are both CLOSED).
In a fist step, the information to be transmitted must be configured in the DIGSI configuration matrix for all three
devices. In addition, the information to be received is also configured; this principle is known from IRC.
The figure below shows the information to be configured in the configuration matrix.
Figure 2-94 Configuration matrix of devices C01, C02, C03
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You can see, for example, that C01SSTrGes information (busbar isolator is closed in field C01) is formed in
CFC (source "C") and sent to the system interface (destination "S"). Thus, it is available to all other GOOSE
users. This is used by the C02 field, where the "C01SSTrGes" information with source "S" and destination "C"
was created. This information is thus collected by the system interface and processed in CFC. The information
items with destination "S" are of type internal marking (IE) and information items with source "S" of type external
single message (exEM).
If IRC and GOOSE are operated simultaneously , either IRC or GOOSE may be set as the source of information
items, but not both at the same time.
As soon as an information item is configured to "System interfac e" as ei the r source or t a rget , the fo llow ing se-
lection box will appear in DIGSI:
Figure 2-95 Selection box for allocating IEC61850 addresses
This box is used to assign addresses for the IEC61850 communication. The numbers assigned by DIGSI are
suggestions and can be manually modified (this is only recommended for special cases). The log ical node
CTRL (Control) is permanently assigned to user-defined indications and commands. The prefix of the logical
node is not preset and can be freely selected. In this example, SFS is chosen for switchgear interlocking; up to
11 characters can be entered.
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2.13.3 Communication connection status
The status of the communication connection (disturbed / undisturbed) is supplied with each transmitted
message as information status. In case of a disturbed GOOSE connection, the information has a status of "not
updated". This status can be extracted from the information using, for example, the new "DI_ GET_STATUS"
status module in CFC (for double messages) and should also be processed in the interlocking. This status cor-
responds to IRC_Fault when communicating via Port C.
2.13.4 Selecting the GOOSE Nodes
In the next step, all nodes for the GOOSE inter-relay communication are selected in the system configurator.
To do so, create an IEC61850 substation (right-click in the DIGSI Manager – Insert new object – IEC61850 sub-
station) and right-click it. Go to the "Nodes“ tab.
Figure 2-96 S pecifying nodes
At the beginning, all devi ces in a DIGSI project that have an IEC61850 interface are displa yed in the top
window . Highlight the nodes for the IEC61850-GOOSE communication (in this example all three devices) and
click the "Add" arrow. All three nodes are now moved to the bottom window and are available for configuration
in the system configurator.
This procedure is the same as that in the traditional IRC.
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2.13.5 Creating an IP Network with the System Configurator
Now double-click the system configurator to open it. The devices selected as "nodes" of the GOOSE commu-
nication must have been opened at least once with DIGSI. The system configurator has the two views "Net-
work“ and "Configuration“, as shown in the figure below. Select first the "Network" view.
Figure 2-97 Specifying addresses of Ethernet nod es in the system configurator
The system configurator creates a subnet for the nodes and assigns the IP addresses automatically. The ad-
dresses can be changed manually if they do not fit into an existing network configuration. If the IP network is
to be used exclusively for the GOOSE communication of the configured nodes, the addresses can be left as
they are.
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2.13.6 Routing Information between Nodes
Go now to the "Configuration" view to interlink the information provided by the GOOSE nodes.
First of all, assign a name to the application. To do so, select the subnet containing the GOOSE nodes (here
Subnet1), and insert an "application" (menu bar – Insert – Application), as shown in the figure below.
Figure 2-98 S tarting the GOOSE configuration
Assign a meaningful name to the application, e.g. "Switchgear interlocking".
The "Configuration" view is composed of three important windows. In the top centre, the links between source
and target are shown. At the bottom left, the possible source information is shown in a selection list, and at the
bottom right the possible target information.
After you have created an application, the three devices belonging to the subnet appear in the source and target
lists.
First, select a source information of the device C01 6MD66x. To do this, click the device in the "Sources"
window. This opens a tree view with the four Logical Devices which are contained in the device: CRTL, DR,
EXT and MEAS. The previously generated information items for interlocking can be found in the Logical Device
CTRL. The required information items can be found at the very bottom of the list under CTRL. Source informa-
tion is C01SSTrGes. This information is availabl e under the Logical Node SFSGGIO1.
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Figure 2-99 Selecting the source information
Use the "Add source“ button, which is activated when you select the information, to copy this information to the
link list.
Proceed in the same way for the other two items of source information from the other two devices. You will
obtain the following result:
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Figure 2-100 Routing of all source information
Proceed in the same way for the target information. Before clicking the "Add target" button, however, select
from the link list the line which contains the required sour ce information. For instance, the information "C01
Busbar disconnector closed" from bay C01 must be routed to the information of the same name in the bus cou-
pler.
After routing all information items, the link list looks like this:
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Figure 2-101 Routing of all target information
Unlike the source information, the target information is not copied but moved. Each item of information can
appear exactly once as a target (uniqueness), whereas an item of source information can have several targets.
For instance, the information "Bus coupler closed" from C02 is transmitted to both feeder devices, C01 and
C03.
To make navigation in the tables easier, the familiar SIPROTEC texts are always displayed in parallel next to
the IEC61850 information names.
Save now the station with "S tation – Save“ from the menu bar . The SCD file describing the station configuration
is now saved.
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2.13.7 Update Parameter Sets and Print S tatus
The last step is now to add the links created in the link list to the parameter sets of the three devices. To do so,
close the station configurator, right-click the IEC61850 station and select once again "Object properties“.
There you select the "Update " tab, which looks now like this.
Figure 2-102 Updating nodes
By clicking the button "Update all parameter sets“, you prompt the DIGSI Manager to add the routing informa-
tion to the device parameter sets.
A report is created, which can also be printed.
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Figure 2-103 Updatin g report
After the update has been completed without errors, the nodes are marked with a checkmark in the column "P".
When changes are made in indivi dual devices or in the GOOSE configuration, this checkmark shows clearly
which parameter sets are up to date and which are not.
Figure 2-104 Updated parameter sets
You can now load the parameter sets into the SIPROTEC4 6MD66x devices.
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2.13.8 T ime Synchronization
T ime synchronization is not possible with the GOOSE mechanism; in IEC61850 a client-server mechanism is
provided for that purpose. In SIPROTEC4 devices, a client functionality is implemented for NTP (Network Time
Protocol).
If such a time server is available in the network, it can be used for time setup of the devices connected through
IEC61850. For instance, the SICAM PAS Station Controller can be used as an NTP time server.
To configure the device, open it with DIGSI and select "Time synchronization". Since the introduction of
IEC61850, the option "Ethernet NTP“ is available there.
Figure 2-105 “Time synchronization” dialog box
A prerequisite for this is that an appropriate time server exists in the network.
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2.13.9 Setting Notes
Interface Selection
No settings are required for operation of the Ethernet system interface module (IEC 61850 EN100-Modul 1).
If the device is equipped with such a module (see MLFB), the module is automatically configured to the inter-
face available for it, namely .
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2.14 Connecting external instrument transformers
External instrument transformers are connected with the purpose of measuring and processing temperature,
pressure or any 20-mA measured values. The external instrument transformers are connected to port C or port
D and transmit their measured values to the bay controller via a serial communication protocol. At present, the
instrument transformers by Ziehl (TR600 and TR800, Siemens MLFB ordering possible) can be connected.
For this function select devices that have a 2 or 3 in 12th position of the MLFB number.
2.14.1 Function Description
Measurement Box
Measurement boxes are external devices which are mounted on a top-hat rail. They have up to 8 temperature
or 8 x 20 mA measuring inputs, one RS485 interface for communication with the bay controller and one RJ45
interface for parameterization via Web browser and communication of measured values. The measurement
box converts the measured values into a digital value. The digital values are delivered to a serial port.
Note
The measurement boxes 7XV5662-2AD10 or 7XV5662-5AD10 (RTD box) are available. They are each suit-
able for 6 measured values and the measurement box 7XV5662-7AD10 for 8 measured values. Mixed opera-
tion of the different measurement box types is not possible.
Figure 2-106 Connection of one or optionally of two 7XV5662-7AD10 measurement boxes
Communication with the bay controller
The bay controller can have up to two measurement boxes connected to its service interface (port C).
Up to 16 temperature measurement points or 16 x 20mA measurin g inputs or 8 temperature measurement
points and 8 x 20 mA measuring inputs are thus available. For greater distances to the bay controller, we rec-
ommend using optical fibre communication. Appendix A.3 3 shows possible communication architectures.
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2.14.2 Setting Notes
Connecting external instrument transformers
Measured value acquisition is only effective if the measurement box(es) have been assigned at address 190
MEASUREMENT BOX when configuring port C. You will find this parameter in the DIGSI functional scope. Select
the number of sensor inputs and the communication mode in address 191 MB CONNECTION. The values with
“6” or “12” inputs are valid for the RTD boxes 7XV5662-2AD10 or 7XV5662-5AD10 and values with “8” or “16”
inputs are relevant for the measurement box 7XV5662-7AD10 with 8x 20 mA measured values each.
If the measurement boxes are operated in half-duplex mode, „/CTS controlled by /RTS“ must be selected for
flow control (CTS) by means of a jumper (see section 3.1.2 in the chapter „Installation and Commissioning“).
Settings with DIGSI for the (bay control) device.
The settings for each input are made in the same way . They are shown here at the example of measuring input
1.
Select the sensor type for RTD 1 (measurement point 1) at address 9011 RTD 1 TYPE. You can select xxx
for 20 mA measured values or Ni 120 Ω and Ni 100 Ω for temperature measurement. Select RTD 1 TYPE
= Not connected if no measurement point is available for RTD 1. This setting can only be made in DIGSI
under „Display Additional Settings“. In addition to the “20 mA measured values”, the DIGSI setting xxx is also
suitable for other options such as “PT100”, “P T1000”, “Ohm” or “Volt” in the 7XV5662-7AD10 measurement
box. When using Ni 120 Ω and Ni 100 Ω in DIGSI, you must select “PT100” in the 7XV5662-7AD10 mea-
surement box.
Furthermore, you have to specify two pickup values for each measured value here. If they are exceeded, an
alarm is generated in the 6MD66x. The range from -1999 to +9999 is available for scaling the pickup values.
But only the values from 0 to 20 are actually usable since they are directly equivalent to the values in mA.
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Figure 2-107 Functional scope of the RTD box
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Figure 2-108 RTD box: Settings group with additional parameters
Moreover, you can set an alarm value for each 20 mA measured value at address 9017 MBS1 Stage 1 and
a tripping value at address 9018 MBS1 Stage 2.
For temperature measurements you can set the alarm temperature to degree Celsius (°C) in address 9013
RTD 1 STAGE 1 or to degree Fahrenheit (°F) at address 9014 RTD 1 STAGE 1 depending on which tem-
perature unit you selected in the power system data (section 2.1.1.2 in address 276 TEMP. UNIT). You can
set the tripping temperature to degree Celsius (°C) at address 9015 RTD 1 STAGE 2 or to degree Fahrenheit
(°F) at address 9016 RTD 1 STAGE 2.
At address 9012 RTD 1 LOCATION you inform the device about the mounting position of RTD 1. The options
Oil, Ambient, Winding, Bearing and Other are available. The sel ected option is not evaluated in the
device; it merely informs the device about the medi u m th at performs the temperature measurement. This
setting can only be made in DIGSI under „Display Additional Settings“.
Analogously, you can specify the settings for all connected measuring elements of the first measurement box.
If the measurement box is activated in the functional scope, two new groups will be displayed in the routing
matrix: One is the group labelled "M easurement Box" showing th e indications and one group named "Meas.
Thermal Values" containing the measured values.
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Figure 2-109 RTD box routing
Monitoring functions
The indication 17116 „Failure MB1“ is used to monitor measurement box 1 (17117 for measurement box
2). 14101 „MB Fail“ is a group indication which is displayed if one of the two individual failures is set. In ad-
dition, each single measured value is monitored e.g. 14114 „MBS1 Fail“, for instance if a sensor is not con-
nected or a measured value overflows.
Settings at the measurement bo x
Table 2-17 Coordinating the settin gs between measurement box and bay controlle r
The communication baud rate is 9600 bits/s. The parity is even. The bus number is set to 0 by default. Changes
at the measurement box can be made in mode 7. The following convention applies:
Table 2-18 Setting the bus address at the measurement box
You will find more information in the manual supplied with your measurement box.
RTD box (Web browser) 6MD66 (DIGSI) Note
Temperat ure measure-
ment PT100 Ni 100 Ω or Ni 120 Ω make sure that units are
identical
20 mA measured values 20 mA Measurement box settings The values in the 6MD66x
do not have units (leave
°C)
Mode Number of
measurement boxes Address
(for 7XV5662-2AD10 or
7XV5662-5AD10)
Address
(for 7XV5662-7AD10)
simplex 1 0 92
half-duplex 1 1 1
half-duplex 2 1. Measurement box 1 1. Measurement box 1
2. Measurement box 2 2. Measurement box 2
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Further processing of the measured values and indications
The measurement box is represented in DIGSI as a part of the 6MD66x, i.e. indications and measured values
are displayed in the routing matrix just like the internal functions, and they can be routed and processed in the
same way. This allows indications and measured values to be forwarded to the integrated user-defined logic
(CFC) where they can be linked as desired. But the pickup indications „RTD x St. 1 p.up“ and „RTD x
St. 2 p.up“ are neither added to the group indications 501 „Relay PICKUP“ and 511 „Relay TRIP“,
nor do they initiate a fault condition.
If you want an indication to appear in the operational log, place a checkmark into the corresponding intersection
cell of column and row in the matrix.
Figure 2-110 Routing matrix for 7XV5662-2/5* as an RTD box in °C or °F
Figure 2-1 11 Routing matrix for 7XV5662-7* either as a 20-mA measured value box or for temperature mea-
surement (20 mA are equivalent to 20,000)
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2.15 Web Monitor
The Web Monitor makes possible the display of parameters, data and measuring values for SIPROTEC 4-
devices during installation or during operation. For this it uses Internet technology.
The SIPROTEC-Web Monitor provides several functions for all devices, the others are available depending on
the device. The 6MD66x specific functions are monitoring of the IRC combination and monitoring of the syn-
chronizing function. Among general installation notes, this manual also describes functions of the SIPROTEC
Web Monitor which are specific for 6MD66x only . The general functions are available in the Help file on DIGSI-
CD (as from version DIGSI V4.60).
The display is made by a Web Browser, e.g. Internet Explorer. Using the W eb browser you can find, for exam-
ple, a quick view of an IRC combination. Combination data, device data, master data, combination structure
and process data of each user can be displayed there. In case of synchronizing function, the Web Monitor
enables the display of switching ranges of a synchroscope and of syn c hronous networks.
Prerequisites
The Web-Monitor runs on the operato r PC and requires only standard software. The following software pro-
grams / operating systems must be installed:
Operating system: Microsoft Windows XP , Microsoft Windows 2000, Microsoft Windows NT, Microsoft Windows
ME, Microsoft Windows 98
Internet br ow se r: N etscape Communicator Version 4.7 , Netscape Communicator Version 6.x or hig her, or Mi-
crosoft Internet Explorer Version 5.0 or higher. Java must be installed and activated.
Long-distance data transmission network: The required software component is included in Microsoft Windows
XP, Microsoft Windows 2000, Microsoft Windows NT and Windows 98. This component is only needed if the
device is connected through a serial interface.
Network adapter: The required software component is integrated into Micro s oft Windows XP, Microsoft
Windows 2000, Microsoft Windows NT and Windows 98. This component is only needed when connecting the
device via an Ethernet interface (possible for devices with EN100 interface).
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2.15.1 General
During installation, the device parameterization created must be controlled in devices and their function s
checked. The Web Monitor supports you during the simple and clear determination and display of important
measuring values.
Discrepancies in the wiring or the parameterisation can be found and solved quickly.
To run the Web-Monitor, a link from the operator PC to the protection device via its front and rear operator in-
terface (service interface) is necessary. This can be made dire ctl y by th e 9 -pole DIGSI cable by mea ns of an
existing long-distance data connection. Remote access via a modem is possible as well. An Internet browser
must be installed on the operator PC (see p aragraph on system requirement s). DIGSI 4 is usually installed on
the operator PC as well.
Please make sure that DIGSI 4 and the Web-Monitor do not use the same operator interface at the same time.
A serial simultaneous access would lead to data collisions. This means that either DIGSI 4 OR the Web-Monitor
can use a device interface. Before the Web-Monitor is started, DIGSI 4 must be exited or you should at least
have finished making the settings and allocations in DIGSI 4. It is possible to simultaneously operate DIGSI 4
at the front operator interface vi a a COM port of the operator PC and the Web-Monitor at the rear operating
interface via an other COM port of the operating PC.
The Web-Monitor is composed of HTML pages containing Java applets which are stored in the EEPROM of
the 6MD66x SIPROTEC 4 device. It is an integral part of the SIPROTEC 4 device firmware and need not be
separately installed. All that needs to be created on the operator PC is a long-distance data transmission
network used for selection and communication. After the link has been successfully established through th e
data transmission network, the browser is started and the TCP-IP address of the protection device entered in
it. 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.
Note
The process can only be monitored. Control the process through the data transmission link is only possible after
a control feature has been set up and established. Y ou can, either directly on the device or with DIGSI 4, modify
a param eter in such a way that the de vi c e co nt rol feature contained in the Web-Monitor allows al so the input
of numerical values. You can then modify in the Web-Monitor parameters which are normally set only directly
on the device, because passwords can now be entered from the keyboard.
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2.15.2 Functions
Basic Functionality
The basic functionality designates functions that are generally availa ble, i.e. not device-dependent.
These include:
• Device operation
• Indications
• Fault record overview
• Measured value overview
• Diagnosis
• Device file system
•CFC
A function description can be found in the Online Help of DIGSI as from version V4.60.
Figure 2-112 Web-monitor - Basic display
The above figure of the device operation view shows a device connected through the data transmission link
with its control (keyboard) and display elements (display , LEDs, inscriptions). The device can be operated with
the keys shown in the display in th e same way as with the sealed keypad on the device.
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Siemens recommends to block the controller using the Web Monitor. This can be achieved by allowing "Read
only" access for the interface through which the Web browser accesses the device. You can receive this pa-
rameter in DIGSI via "Interfaces - Operator Interface at the Device" (for access via serial interface) or via "In-
terfaces - Ethernet at the device" (for access via Ethernet interface, refer to the following Figure).
Figure 2-113 Setting the authorizatio n for the Web Monitor for an access via Ethernet interface
The figure below shows as an example the indications from the operational indication buffer arranged in a list.
These indications are displayed with their short text stored in the device.
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Figure 2-114 Event log
Device-specific Functio nality
In addition to the general basic functionality, the Web-Monitor for the 6MD66x comprises the PRC functions
IRC combination with user details and the synchronization functions. All in all, the following information can be
displayed with the Web-Monitor.
IRC combina ti o n
• Combination data
• Device data
•Master data
• Combination structure
• Node details
The IRC combination function of the Web-Monitor is started with the menu item "RC“ in the operator menu. An
IRC combination can comprise up to 32 nodes. Nodes are displayed in a list, with their node number and status
(ON or OFF). Nodes connected with the Web-Monitor are shown in red. The nodes and their numbers are
mouse-sensitive. This means that on moving the mouse over the node the cu rsor shape changes to a hand,
and the colour of the node changes. By clicking on a node, you can then display details of that node – up to 32
items of process information – with the indications parameterised for it and the associated values.
The synchronization functi on includes the following views:
• Synchronization ranges
The synchronization 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 networks
Synchronous networks are visualiz ed by a pi e chart and the current measured values.
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The figure below shows an example of the synchronoscope with selection list, pie/bar ch art and the current
measured values.
Figure 2-115 Web-monitor - Synchronoscope
All currently parameterized functions are shown in a list. An LED icon shows the current status of the selected
group: bright green (ON) for active, and dark green (OFF) for inactive. For an inactive function group, only the
parameter settings are shown, whereas for an active function group the current measured values are displayed
as well. On startup, the first active function group found is displayed automatically. All measured values are
read out directly in th e de vi ce — abo ut eve ry 100 ms — and visualized in tables or diagrams.
2.15.3 Operating Modes
The Web-Monitor works in the following operating modes set between the operator PC and the SIPROTEC 4
device:
Direct Serial Link
Direct link between the device's front or rear service interface and the serial interface of the operator PC. For
this link the 9-pin cable must be used that is supplied as an accessory with DIGSI.
Dial-up Connec tion Through a Modem
Serial connection of the rear service port of the device with a modem in the system. This connection can be
electrically implemented via RS232 (over short dist ance) or via fibre 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 this connection. Thus, parameters of a remo te device can also be changed during the in-
stallation.
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Operation with a Star Coupler
Connection between the device's rear service interface and a star coupler using a direct optical link. Connection
of the operator PC's serial interface to a star coupler. In this way several devices can be operated within the
system; the existing installation can be used for central operation of protection devices.
Operation with Ethernet
Link through an Ethernet interface. This type of connection requires an EN100 communication module inside
the device, and a connection of that module to a local network.
For more information of the basic functionality, the installation and the operating system-specific configuration
please refer to the Web-Monitor online help provided on the DIGSI CD.
Access regulation for Web Monitor
The Web Monitor access rights are assigned with DIGSI using the Interfaces entry . For this purpose, Siemens
recommends to allow Read authorization; in doing so, neither the event list can be deleted, nor a command
output, nor a saved LED reset via the Web Monitor. If you specify the Full access level, all these operating
actions can also be carried out through the Web Monitor.
Note
The No access level is ineffective yet, i.e. here, the user receives full access rights as well. For this, refer to
Figure 2-113.
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Mounting and Commissioning 3
This chapter is intended for experienced commissioning staff. They should be familiar with commissioning
control devices, using the network and with the safety rules and instructions. Some hardware adaptations to
the system data may become necessary. Some of the primary tests require the devices (line, transformer , etc.)
to carry load.
3.1 Mounting and Connection s 210
3.2 Checking Connections 231
3.3 Commissioning 237
3.4 Final Preparation of the Device 247
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3.1 Mounting and Connections
General
WARNING!
Beware of incorrect transport, storage, installation or assembly.
Non-observance can result in death, personal injury or substantial property damage.
The correct and safe operation of this device depends on proper transport, storage, installation and assembly
of the device according to the warnings and instructions given in this manual.
Particularly, you must obse rve the general installation and safety regulations for working in high-voltage envi-
ronment (e.g. ANSI, IEC, EN, DIN, VDE or other national and international regulations).
3.1.1 Configuration Information
Prerequisites
For installation and connection, the followin g conditions and limitations apply:
The rated device data has been checked as recommended in the SIPROTEC 4 System Description /1/ and
their compliance with these data is verified with the Power System Data.
Connection variants
Connection examples for the current and voltage transfo rme r circuits are given in the Appendix.
Currents/Voltages
Since the voltage inputs of the 6MD66x have an operating range from 0 V to 170 V, it is possible to evaluate
phase-to-phase voltages up to √3 · 170 V = 294 V.
Binary inputs and outputs
The configuration of the binary inputs and outputs, i.e. the individual adaptation to the system conditions, is
described in /1/. The connections to the system are dependent on this actual configuration.
Mounting and Commissioning
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3.1.2 Hardware Modifications
3.1.2.1 General
Hardware modifications concerning, for instance, nominal currents, the control voltage for binary inputs or ter-
mination of serial interfaces might be necessary. Follow the procedure described in this subsection, whenever
hardware modifications are done.
Auxilia r y voltage
The different input voltage ranges (DC 60 V to 110 V and DC 220 V to 250 V of the auxiliary voltage are inter-
changeable by modifying the jumper positions. Upon delivery all jumpers are set according to the data on the
name plate and do not need to be changed (see also the ordering information in the Appendix).
Life contact
The life contact of the device is a changeover contact, i.e. either the NC contact or the NO contact can be con-
nected to the device terminals F3 and F4 using a jumper (X40 on the CPU module). The assignment of the
jumper to the contact type and the spatial arrangement of the jumper are described bel ow.
Rated currents
The input transformers of the devices are set to a nominal current of 1 A or 5 A with jumpers. Upon delivery,
the jumpers positions correspond to the specifications on the name plate. All jumpers must be set to the same
rated current, i.e. one jumper (X61 to X63) for each input transformer and additionally the common jumper X60.
Should you perform a change here, you must not forget to communicate this change to the device also via the
parameter Tr ansformer current I, secondary in the measuring transducer packets.
Control voltage for binary inputs
In the delivery status, the binary inputs are set in a way ensuring that a direct current equalling the suppl y
voltage is set as control variable. If the rated values differ from the power system control voltage, it may be
necessary to change the switching threshold of the binary inputs.
To change the switching threshold of a binary input, you must change a jumper position.
Note
If binary inputs are used for trip circuit supervision, note that two binary inputs (or one binary input and one
replacement resistor) are connected in series. The switching threshol d must lie significantly below half the
nominal control voltage.
Replacing interfaces
The serial interface are exchangeable. Which interfaces can be exchanged and how this is done is described
in the section on interface modules
Terminating serial interfaces
To ensure reliable data transmission, the RS485 bus or PROFIBUS must be terminated at the last device on
the bus (connect terminating resistors). For this purpose, terminating resistors are provided on the PCB of the
CPU module and on the PROFIBUS interface module which can be connected via jumpers. Both jumpers must
always be plugged identically.
The termination resistors are disabled on uni t delivery.
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3.1.2.2 Disassembly
Disassembly of the Device
Note
It is assumed for the following steps that the device is not operative.
Working on the Printed Circuit Boards
Caution!
Be careful when changing PCB elements that affect nominal values of the device!
As a consequence, the ordering number (MLFB) and the ratings on the nameplate no longer agree with the
actual device properties.
If such changes are necessary in exceptional cases, these changes must be clearly and visibly noted on the
device. Self adhesive stickers are available for this purpose that can be used as additional nameplates.
If you work on the printed circuit boards, for instance checking or re-plugging switching elements or exchanging
modules, proceed as follows:
• Prepare your workplace: Provide a mat suitable for electrostatically sensitive devices (ESD). And you need
these tools:
– a screwdriver with a 5 to 6 mm wide tip,
– a Phillips screwdriver Pz size 1,
– a socket wrench size 5 mm.
• Unfasten the threaded bolts of the D-sub connector on the back at location „A“.
• If the device has additional system interfaces on slots „B“ to „D“ besides the service interface at slot „A“, the
screws located diagonally to the interfaces must be removed.
• Remove the caps on the front cover of the device and loosen the screw underneath.
• Pull of the front cover and carefully open it to one side. For devices with a detached operator panel, the front
cover of the device can be removed directly after all screws have been unscrewed.
Working on the Plug Connectors
Caution!
Beware of electrostatic discharges!
Non-observa n ce ca n re sul t i n mino r personal injury or property damage.
Avoid electrostatic discharges that occur while working on plug connectors by touching earthed metal parts first.
Do not plug or pull interface connection while they are under voltage!
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To work on the plug connectors, proceed as follows:
• Release the connector of the ribbon cable between CPU processor module (1) and front cover at the front
cover. To do so, push the top and bottom latches of the plug connector apart so that the plug connector of
the ribbon cable is pressed out.
This step is not necessary for devices with detached operation panel. On the CPU processor module (1) the
7-pin plug connector X16 behind the D-sub socket and the plug connector of the ribbon cable (connected to
the 68-pin plug connector on the device back) must be removed.
• Disconnect the plug connector of the ribbon cable between the CPU board (1) and the input/output modules
I/O-4 (2) and I/O-5 (3).
• Remove the boards and place them on a surface suitable for electrostatically sensitive module s (ESD).
• Check the jumpers and change or remove them if necessary.
Module Arrangement of 6MD662
Figure 3-1 Front view of a 662 device after removing the front cover (simplified and reduced in scale)
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Module arrangement of 6MD6 6 3
Figure 3-2 Front view of a 663 device after removing the front cover (simplified and reduced in scale)
Module arrangement of 6MD6 6 4
Figure 3-3 Front view of a 664 device after removing the front cover (simplified and reduced in scale)
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3.1.2.3 Switching Elements on Printed Circuit Boards
CPU processor module
Check the set rated voltage of the integrated power supply , the quiescent state of the life contact, the selected
control voltages of binary inputs BI1 to BI5 and the integrated RS232/RS485 interface using the layout of the
PCB of the CPU processor module and the tables below.
Figure 3-4 Processor module CPU with representation of the jumpers required for checking the setti ngs
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Table 3-1 Jumper settings for the nominal voltage of the integrated power supply on the processor board
CPU .
1) In the version "DC 24 V to 48 V" changing the rated voltage by rearranging jumpers is not possible.
Table 3-2 Jumper position of the quiesce nt state of the Life contact on the CPU processor module
Table 3-3 Jumper setting of the control voltages of the binary inputs BI1 to BI5 on the CPU processor
module
1) Factory settings for devices with rated supply voltage of DC 24 V to 60 V
2) Factory settings for devices with rated supply voltage DC 110 V
3) Factory settings for devices with rated supply voltage of DC 220 V to 250 V
Table 3-4 Jumper settings of the integrated RS232/RS485 interface on the CPU pr oce ssor module
Note
Jumpers X105 to X110 must be set to the same position.
The presetting of the jumpers corresponds to the ordered configurati on.
The R485 interface can be converted into an RS232 interface by modifying the jumpers.
For an order with MLFB position 12 the same as 0, the interface is set to RS232.
Jumper Rated voltage
DC 24 V to 48 V 1) DC 60 V DC 110 V DC 220 V to 250 V
X51 Not used 1-2 1-2 2-3
X52 Not used 1-2 and 3-4 1-2 and 3-4 2-3
X53 Not used 1-2 1-2 2-3
X55 Not used Open Open 1-2
Jumper Open in the quiescent state Closed in the quiescent state Presetting
X40 1-2 2-3 2-3
Binary input Jumper Threshold 19 V 1) Threshold 88 V 2) Threshold 176 V 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
Jumper RS232 RS485
X105 to X110 1-2 2-3
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Table 3-5 Jumper setting for CTS (Flow control) on the CPU proc esso r mo du l e
The jumper is always inserted at position 2-3 at the factory.
The jumper must be set to 2–3 for the RS232 connection of DIGSI.
Jumper setting 2–3 is also required for the connection via star coupler or fibre optic cable; we recommend the
connection cable Order No. 7XV5100–4 for this purpose.
Jumper setting 1–2 is required for a modem connection; we recommend a standard connection cable (9-pin/25-
pin) for this.
Table 3-6 Jumper setting of the terminating resistors of the RS232/RS485 interface on the CPU pro-
cessor module
If there are no external resistors in the system, the last devices on a bus must be configured via the jumpers
X103 and X104.
Note
Both jumpers must always be plugged in the same way!
Jumper X90 serves for internal test purposes. The factory setting 1–2 must not be changed.
Jumper /CTS from Interface RS232 /CTS triggered by /RTS
X111 1-2 2-3
Jumper Termination resistor
Connected
Termination resistor
Disconnected
Factory setting
X103 2-3 1-2 1-2
X104 2-3 1-2 1-2
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I/O-4 module
The selected control voltages of the binary inputs BE6 to BE65 are checked according to the table below. The
assignment of the binary inputs to the installation location of the module can be found in Section Module ar-
rangement.
Figure 3-5 I/O-4 input/output module with representation of the jumpers require d for checking the settings
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Table 3-7 Jumper positions of the control voltages of the binary inputs BI6 to Bi65 on the input/output
modules I/O-4
1) Factory settings for devices with rated supply voltages of DC 24 V to 60 V
2) Factory settings for devices with supply voltages DC 110 V
3) Factory setting for devices with supply voltages of DC 220 V to 250 V
The jumpers X71, X72 and X73 on the I/O-4 input/output module serve to set the bus addre s s. The jumpers
must not be changed. The table shows the factory settings for the jumpers.
Table 3-8 Module address jumper settings of input/output modules I/O-4
Binary input Jumper Threshold 19
V 1) Threshold 88 V
2) Threshold 176
V 3)
BI6 BI21BI36BI51 X21 1-2 2-3 3-4
BI7 BI22BI37BI52 X22 1-2 2-3 3-4
BI8 BI23BI38BI53 X23 1-2 2-3 3-4
BI9 BI24BI39BI54 X24 1-2 2-3 3-4
BI10 BI25 BI40 BI55 X25 1-2 2-3 3-4
BI1 BI26BI41BI56 X26 1-2 2-3 3-4
BI12 BI27 BI42 BI57 X27 1-2 2-3 3-4
BI13 BI28 BI43 BI58 X28 1-2 2-3 3-4
BI14 BI29 BI44 BI59 X29 1-2 2-3 3-4
BI15 BI30 BI45 BI60 X30 1-2 2-3 3-4
BI16 BI31 BI46 BI61 X31 1-2 2-3 3-4
BI17 BI32 BI47 BI62 X32 1-2 2-3 3-4
BI18 BI33 BI48 BI63 X33 1-2 2-3 3-4
BI19 BI34 BI49 BI64 X34 1-2 2-3 3-4
BI20 BI35 BI50 BI65 X35 1-2 2-3 3-4
Jumper Insertion slot
Slot 19 (1) Slot 33 (2) Slot 5 (3) Slot 19 (4)
X71 1-2 (H) 2-3 (L) 1-2 (H) 2-3 (L)
X72 2-3 (L) 1-2 (H) 1-2 (H) 2-3 (L)
X73 2-3 (L) 2-3 (L) 2-3 (L) 1-2 (H)
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I/O-5 module
Check the set rated currents of the current input transformers here. All jumpers must be set for one rated cur-
rent, i.e. respectively one jumper (X61 to X63) for each input transformer and additionally the common jumper
X60.
Figure 3-6 I/O-5 input/output module with representation of the jumpers require d for checking the settings
Jumpers X71, X72 and X73 on the input/output module I/O-5 are used to set the bus address and must not be
changed. The table shows the factory setti ng of the jumpers. The insertio n slot of the module is described in
Section Module arrangeme nt.
Jumpers X60 - X63 serve for setting the nominal current secondary current 1 A or 5 A. All jumpers must be set
identically.
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Table 3-9 Jumper position of the module address of the inpu t/output module I/O-5
6MD662 Jumper Position
X71 1-2
X72 1-2
X73 2-3
6MD663 Jumper Position
X71 2-3
X72 2-3
X73 1-2
6MD664 Jumper Position
X71 1-2
X72 2-3
X73 1-2
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3.1.2.4 Interface Modules
Replacing interface modules
Figure 3-7 Example, CPU processor module with interface modules
Note
Please note that you can only use interface modules with which the device can be ordered from our factory via
the ordering code (see Appe ndix).
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Table 3-10 Replacement modules for interfaces
The order numbers of the replacement modules can be found in the Appendix.
Serial interfaces with bus capability
For bus-capable interfaces a termination is necessary at the bus for each last device, i.e. termination resistors
must be connected. With the 6MD66x this applies to versions with RS485 or PROFIBUS interfaces.
The termination resistors are located on th e corresponding PROFIBUS interface module, which is located on
the CPU processor module or directly on the PCB of the CPU processor module.
Upon delivery, the jumpers are in such a position that the terminating resistors are switched off. Both jumpers
of a module must always be plugged in the same sense.
Figure 3-8 Position of the jumpers for configuration of termination resistors of the PROFIBUS FMS and
PROFIBUS DP interface
Interface Insertion slot Replacement module
System interface B
RS485
FO 820 nm
PROFIBUS FMS RS485
PROFIBUS FMS Single ring
PROFIBUS FMS Double ring
PROFIBUS DP RS485
PROFIBUS DP Double ring
IEC 61850 Ethernet electrical
DIGSI service interface D FO 820 nm
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The terminating resistors for the PROFIBUS interface can also be connected externally (e.g. to the connection
module). In this case, the terminating resistors located on the PROFIBUS interface module or directly on the
PCB of the CPU board must be switched off.
Figure 3-9 Termination of the RS485 interface (external)
Note
The RS485 interface used with this device for the inter-relay communication cannot be provided with terminat-
ing resistors externally as shown in the figure above, as the +5 V voltage is not routed out with this device
(please refer also to Table 3-11). The RS485 interface on the processor module can be terminated directly on
the processor module (see the CPU module for the jumper setting).
External termination of the RS485 bus is only possible between the lines A/A` and B/B` each with 120 Ω at the
bus ends. The resulting resistance must not be smaller than 60 Ω.
The achievable data transmission rate depends on the distance and the quality of the data line in use. Distanc-
es of up to 1000 m are feasible.
Figure 3-10 Correlation between data rate and bus length
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IEC 61850 Ethernet (EN100)
The Ethernet interface module has no jumpers. No ha rdware modifications are required to use it.
3.1.2.5 Reassembly
The device is assembled as follows:
• Carefully insert the boards into the case. For the device version designed for surface mo unting, we recom-
mend pressing on the metal levers when inserting the CPU board; it is easier to insert this way.
• First plug the plug connector of the ribbon cable into the input/output boards I/O and th en onto the CPU
board. Be careful that no connector pins are bent! Do not apply force!
• Insert the plug connector of the ribbon cable between the CPU board and the front cover into the socket of
the front cover. This step is not necessary for the device version with detached or without operator panel.
Instead the plug connector of the ribbon cable connected to a 68-pin plug connector on the device back must
be plugged into the plug connector of the CPU board. The 7-pin X16 connector belonging to the ribbon cable
must be plugged behind the D-sub female connector . The plugging position is not relevant in this context as
the connection is protected against polarity reversal.
• Press the connector latches together.
• Put the front cover back on and screw it tight to the housing.
• Mount the covers again.
• Re-tighten the interfaces on the back of the device. This is not necessary if the device is designed for surface
mounting.
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3.1.3 Mounting
3.1.3.1 Panel Flush Mounting
• Remove the four covers at the corners and 2 in the centre above and below on the front cover . This exposes
the 6 elongated holes in the mo unting bracket.
• Insert the device into the panel cut-out and secure with the six screws. Dimensional drawings can be found
in the Technical data section.
• Replace the 6 covers.
• Install the protective and operational grounding at the back of the device using at least one M4 screw . The
cross-sectional area of the cable used must correspond to the maximum connected cross-section be at least
2.5 mm2.
• Establish the connections via the plug or screw-type terminals on the device back as shown in the circuit
diagram. When using forked lugs for screwed connections or direct connection, the screws must be screwed
in so far that the screw heads are flush with the outer edge of the connection module. When using ring-type
lugs, the lug must be centered in the connection chamber in such a way that the screw thread fits in the hole
of the lug. Section /1/ provides important information about maximum cross-sections, tightening torq ues,
bending radii and strain relief.
Figure 3-11 Panel flush mounting of a devi ce (housing size 1/1)
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3.1.3.2 Installation in a Rack or Cabinet
To install the device in a rack or cabinet, two angular rails are required. The ordering codes are stated in the
Appendix under A.1.
• First screw the two angular rails slightly into the rack or cabinet using four screws.
• Remove the four covers at the corners and two cover in the upper middle and two at the bottom at the front
cover. This give s access to 6 elongated holes in the mounting bracket.
• Screw the device to the angular rails using six screws.
• Replace the six covers.
• Tighten the eight screws of the angular rail in the rack or cabinet.
• Install the protective and operational grounding at the back of the device using at least one M4 screw. The
cross-sectional area of the cable used must correspond to the maximum connec ted cross-section but at
least 2.5 mm2.
• Establish the connections via the plug or screw-type terminals on the device back as shown in the circuit
diagram. When using forked lugs for screwed connections or direct connection, the screws must be screwed
in so far that the screw heads are flush with the outer edge of the connection module. When using ring-type
lugs, the 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 4 System Description /1/ provides important information about maximum cross-
sections, tightening torques, bending radii and strain relief.
Figure 3-12 Installing a 6MD66x into a rack or cabinet
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3.1.3.3 Mounting with detached operator panel
Caution!
Be careful when removing or plugging the connector between device and detached operator panel
Non–observance of the following measure can result in property damage. Without the cable the device is not
ready for operation!
Never pull or plug the connector between the device and the detached operator panel during operation while
the device is alive!
For mounting the device proceed as follows:
• T ighten the device by means of 10 screws. The dimensional drawing can be found in the Technical data sec-
tion.
• Install the protective and operational grounding at the back of the device using at least one M4 screw . The
cross-sectional area of the cable used must correspond to the maximum connected cross-section but at
least 2.5 mm2.
• Establish the connections via the plug or screw-type terminals on the device back as shown in the circuit
diagram. When using forked lugs for screwed connections or direct connection, the screws must be screwed
in so far that the screw heads are flush with the outer edge of the connection module. When using ring-type
lugs, the 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 4 System Description /1/ provides important information about maximum cross-
sections, tightening torques, bending radi i and strain relief.
For mounting the operator panel please observe the following:
• Remove the four covers at the corners of the front cover. This gives access to 4 elongated holes in the
mounting bra cke t.
• Insert the operator panel into the panel cut-out and fasten with four scre ws. The dimensional drawing is
shown in the Technical Data .
• Put the four covers back into place.
• Install the protective and operational grounding at the back of the operation panel using at least one M4
screw. The cro ss-sectional area of the cable used must correspond to the maximum connected cross-
section but at least 2.5 mm2.
• Connect the operator panel to the device. To do so, plug the 68-pin connector of the cable belonging to the
operator panel into the corresponding socket on the device back (see SIPROTEC 4 System Description /1/).
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3.1.3.4 Mounting without operator panel
For mounting the device proceed as follows:
• T ighten the device by means of 10 screws. The dimensional drawing can be found in the Technical data sec-
tion.
• Install the protective and operational grounding at the back of the device using at least one M4 screw. The
cross-sectional area of the cable used must correspond to the maximum connec ted cross-section but at
least 2.5 mm2.
• Establish the connections via the plug or screw-type terminals on the device back as shown in the circuit
diagram. When using forked lugs for screwed connections or direct connection, the screws must be screwed
in so far that the screw heads are flush with the outer edge of the connection module. When using ring-type
lugs, the 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 4 System Description provides important information about maximum cross-sec-
tions, tightening torques, ben ding radii and strain relief.
Caution!
Be careful when pulling or plugging the dongle cable
Non–observance of the following measures can result in minor persona l injury or property damage:
Never pull or plug the dongle cable while the device is alive! Without the cable the device is not ready for op-
eration!
The connector of the dongle cable at the device must always be plugged during operation!
For mounting the D-sub socket of the dongle cable please observe the followin g steps:
• Fasten the 9-pin socket of the dongle cable using the delivered fasteners as shown in the following illustra-
tion (example). The dimensional drawing for the panel or cabinet cut-out is provided in the Technical Data.
• Plug the 68-pin connector of the cable into the corresponding terminal on the device back.
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Figure 3-13 Plugging the subminiature connector of the dongle cable into the control panel or cabinet door
(example housing size 1/2)
Note
The dongle cable is included in the scope of delivery of the operator interface.
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3.2 Checking Connections
3.2.1 Checking the Data Connections of the Serial Interfaces
The following tables illustrate the pin assignments of the various serial device interfaces and of the time syn-
chronization interface. The posi tio n of the connections can be seen in the following figure .
Figure 3-14 9-pin D-subminiature female connectors
Figure 3-15 Ethernet connector
3.2.2 Operator interface
When the recommended communication cable is used (see A.1 for the ordering number), correct conn ection
between the SIPROTEC 4 device and the PC or laptop i s automatically ensured.
3.2.3 Service / function interface
Check the data connection if the service is used to communicate with the device via hard wiring or a modem.
The same applies for the IRC connection.
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3.2.4 System interface
When a serial interface of the device is connected to a central substation control system, the data connection
must be checked. A visual check of the send and receive channels must be carried out. With RS232 and fibre
optic interfaces, each connection is dedicated to one transmission direction. The data output of one device
must be connected to the data input of the other device and vice versa.
With data cables, the connections are designa ted according to DIN 66020 and ISO 2110:
• TxD = Data output
• RxD = Data Receive
•RTS = Request to send
•CTS
= Clear to send
• GND = Signal / Operational Ground
The cable shield is to be grounded at both line ends. For extremely EMC environments, the GND may be con-
nected via a separate individually shielded wire pair to improve immunity to interference. The following tables
list the assignments of the D-sub socket for the various interfaces.
Table 3-11 Assignment of the D-sub socket at the different interfaces
1) Pin 7 also carries the RTS signal with RS232 level when operated as RS485 interface. Pin 7 must therefore
not be connected!
Pin No. Operator inter-
face RS232 RS485 PROFIBUS FMS Slave, RS485
PROFIBUS DP Slave, RS485
Ethernet
EN 100
1– Tx+
2 RxD RxD – – Tx–
3 TxD TxD A/A’ (RxD/TxD-N) B/B’ (RxD/TxD-P) Rx+
4 – – – CNTR-A (TTL) —
5 GND GND C/C' (GND) C/C' (GND) —
6 – – – +5 V (max. load < 100 mA) Rx+
7– RTS
—1) – —
8– CTS
B/B’ (RxD/TxD-P) A/A’ (RxD/TxD-N) —
9 – – – – not existent
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3.2.5 Termination
For bus-capable interfaces a termination is necessary at the bus for each last device, i.e. terminating resistors
for the RS485 or PROFIBUS interfaces must be connected.
The terminating resistors are located on the RS485 and PROFIBUS interface module, which is located on the
CPU processor module.
If the bus is extended, make sure again that only the last device on the bus has the terminating resistors
switched-in, and that all other devices on the bus do not.
WARNING!
Warning of fau lty data transmission!
Non-observance can result in death, perso nal in jury, or substantial property damage.
The external terminating resistors provided in the PROFIBUS connectors cannot be used for the RS485 stan-
dard, as the +5 V voltage is not routed out to the standard RS48 5 interface (see also note on Figure 3-9). If
the external termination of the PROFIBUS connectors are used, the RS485 bus will not work correctly. !
3.2.6 Time Synchronization Interface
Either DC 5 V, 12 V or 24 V ti me synchronization signa ls can be processed if the conn ections are made as
indicated in the table below.
Table 3-12 D-subminiature connector assignment of the time synchronization interface
1) assigned, but not used
Pin No. Designation Signal Meaning
1 P24_TSIG Input 24 V
2 P5_TSIG Input 5 V
3 M _TSIG Return Line
4 M_TSYNC 1) Return Line 1)
5 Shield Shield Potential
6– –
7 P12_TSIG Input 12 V
8P_TSYNC
1) Input 24 V 1)
9 SHIELD Shield Potential
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3.2.7 Optical Fibres
WARNING!
Laser Radiation!
Do not look directly into the fibre-optic elements!
The transmission via fibre optics is particularly insensitive to electromagnetic interference and thus ensures gal-
vanic isolation of the connection. Transmit and receive connections are shown with the symbols for transmit
and for receive.
The normal setting of the character idle state for the optical fibre interface is „Light off“. If the character idle state
is to be changed, use the operating program DIGSI, as described in the SIPROTEC 4 System Description.
3.2.8 Measurement Box
If one or two 7XV5662 measurement boxes are con nected, check their connections at port C.
Note
The measurement boxes 7XV5662-2AD10 or 7XV5662-5AD10 are each suitable for 6 measured values and
the 7XV5662-7AD10 measurement box for 8 measured values. Mixed operation of the different measurement
box types is not possible.
Verify also the termination: The terminating resistors must be connected to 6MD66x (see margin heading „Ter-
mination“).
Additional information can be found in the manual supplied with the 7XV5662-xAD. Check the transmission pa-
rameters at the measurement box. The baud rate, parity and bus number are important.
Measurement boxes are connected as follows:
• For connecting 1 measurement box 7XV5662-xAD: Bus number = 1 for half-duplex mode (is set at the
7XV5662-xAD)
• When connecting 2 measurement boxes 7XV5662-xAD: bus number = 1 for the first measurement box (set
at the 7XV5662–xAD for measurement point 1 to 8), bus number = 2 for the second measurement box (set
at the 7XV5662-xAD for the measurement points 9 to 16).
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3.2.9 Checking the System Connections
Before the device is energized for the first time, the device should have been in the final operating environment
for at least 2 hours to equalize the temperature, minimize humidity and avoid condensation. The con nections
are checked with the device installed at its final location. The system is switch ed off and grounded during the
check.
WARNING!
Beware of hazardous voltages
Non-observance of the following measures can result in death, personal injury or substantial property damag-
es.
The inspection steps must be carried out only by accordingly qualified staff who are familiar with and observe
the safety regulations and precautionary measures.
Caution!
Be careful when operating the device without battery on a batte ry charger!
Non-observance of the following measure can lead to unusually high voltages and as a consequence destroy
the device
Do not operate the device on a battery charger without a connected battery. (Limit values can be found in the
technical data).
To check the system connections, proceed as follows:
• The miniature circuit breakers of the auxiliary power supply and of the measuring voltage must be switched
off.
• Check the continuity of all current and voltage transformer connections against the system and connection
diagrams:
– Are the current transformers earthed correctly?
– Do the current transformer connec tions have the same polarity?
– Is the phase assignment of the current transformers correct?
– Are the voltage transformers earthed correctly?
– Do the voltage transformer connections have the same, correct polarity?
– Is the phase assignment of the voltage transformers correct?
– Is the polarity for current input IE corr ect (if used)?
– Is the polarity for voltage input UE correct (if used for broken del ta winding)?
• Check the short-circuiting devices of the connectors for the current circuits. This can be performed with sec-
ondary test equipment or other test equ ipment for checking continuity.
– Unscrew the front cover .
– Remove the ribbon cable connected to the input/output module I/O-5 and pull the module out until there
is no more contact between the module and the connector socket at the housing.
– Check the continuity on the conne ction side for each current connection pair.
– Re-insert the module firmly; press the ribbon cable on carefully. Be careful that no connector pins are
bent! Don't use force!
– At the terminals of the device, again check the continuity for each pair of current terminals.
– Reinstall the front cover and screw it tight.
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• Connect an ammeter in the auxiliary power supply circ uit. A range of about 2.5 A to 5 A is appropria te.
• Switch on the miniature circuit breaker for auxiliary voltage (supply protection), check the voltage level and,
if applicable, the polarity of the voltage at the device terminals or at the connectio n modules.
• The current input should correspond to the power input in neutral position of the device. A transient needle
deflection of the ammeter merely indicates the charging current inr ush of the capacitors.
• Switch of the miniature circuit breaker for the auxiliary power supply.
• Remove the ammeter, restore the normal auxiliary voltage connection.
• Switch on the miniature circuit breake r for the auxiliary power supply
• Switch on the voltag e tran sfo rme r circuit breaker.
• Check the direction of the rotating field at the device terminals.
• Switch off the miniature circuit breaker for the transformer voltage and the auxiliary power supply.
• Check the trip and close circuits to the circuit breakers.
• Check the control lines from and to other devices.
• Check the signalling wires.
• Switch on the miniature circuit breaker.
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3.3 Commissioning
WARNING!
Warning of dangerous vo ltages when operating an elec trical device
Non-observance of the following measures can result in death, personal injury or substantial property damage.
Only qualified people shall work on and around this device. They must be thoroughly familiar with all warnings
and safety notices in this instruction manual as well as with the applicable safety steps, safety regulations, and
precautio n ary me asures.
The device is to be grounded to the substation ground befo re any other connections are made.
Hazardous voltages can exist in the power supply and at the connections to current transformers, voltage trans-
formers, and test circuits.
Hazardous voltages can be present in the device ev en after the power suppl y voltage has been re moved (ca-
pacitors can still be charged).
After removing voltage from the power supply, wait a minimum of 10 seconds before re-energi zing the power
supply. This wait allows the initial conditions to be firmly established before the device is re-energized.
The limit values given in Technical Data (Chapter 10) must not be exceeded, neither during testing nor during
commissioning.
When testing the device with secondary test equipment, make sure that no other measurement quantities are
connected and that the TRIP command lines and possibly the CLOSE command lines to the circuit breakers
are interrup te d , un l ess otherwise specified.
DANGER!
Hazardous voltages during interruptions in seco ndary circuits of current transformers
Non-observance of the following measure will result in death, severe personal injury or substantial property
damage.
Short-circuit the current transformer secondary circuits before current connections to the device are opened.
For the commissioning switching operations have to be carried out. A prerequisite for the prescribed tests is
that these switching operations can be executed without danger . They are accordingly not meant for operation-
al checks.
WARNING!
Warning of dangers evolving from improper primary tests
Non-observance of the following measures can result in death, personal injury or substantial property damage.
Primary test may only be carried out by qualified personnel, who are familiar with the commissioning of protec-
tion systems, the operation of the plant and the safety rules and regulations (switching, earthing, etc.).
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3.3.1 Test Mode / Transmission Block
If the device is connected to a central or main computer system via the SCADA interface, then the information
that is transmitted can be influenced. This is only possible with some of the prot ocols available (see Table „Pro-
tocol-dependent func tions“ in the Appendix A.5).
If Test mode is set ON, then a message sent by a SIPROTEC 4 device to the main system has an additional
test bit. This bit allows the message to be recognized as resulting from testing and not an actual fault or power
system event. Furthermore it can be determined by activating the Transmission block that no indications at
all are transmitted via the system interface during test mode.
The SIPROTEC 4 System Description /1/ describes how to activate and deactivate test mode and blocked data
transmission. Note that when DIGSI is being used, the program must be in the Online operating mode for the
test features to be used.
3.3.2 Testing System Interfaces
Prefacing Remarks
If the device features a system interface and uses it to communicate with the control centre, the DIGSI device
operation can be used to test if messages are transmitted correctly. This test option should however definitely
not be used while the device is in service on a live system.
DANGER!
Danger evolving from operating the equipment (e.g. circuit breakers, 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 com-
missioning. Do not under any circumstances check them by means of the testing mode during „real“ operation
performing transmission and reception of messages via the system interface.
Note
After termination of the hardware test, the device will reboot. Thereby, all annunciation buffers are erased. If
required, these buffers should be extracted with DIGSI prior to the test.
The interface test is carried out using DIGSI in the Online operating mode:
• Open the Online directory by double-clicking; the operating functions for the device appear.
• Click on Test; the function selection appears in the right half of the screen.
• Double-click on Testing Messages for System Interface shown in the list view. The dialog box Generate
Annunciations opens (refer to the following figure).
Stru ctu r e of the Test Dialogue Box
In the column Indication the display texts of all indications are displayed which were allocated to the system
interface in the matrix. In the column Status SCHEDULED the user has to define the value for the messages
to be tested. Depending on the indication type, several input fields are offered (e.g. „ON“/ „OFF“). By double-
clicking onto one of the fields the required value can be selected from the list.
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Figure 3-16 System interface test with dialog box: Generating indications – Example
Changing the Opera ting State
On clicking o ne of the butt ons in the column Action you will be prompted for the password No. 6 (for hardware
test menus). After correct entry of the password, individual annunciations can be initiated. To do so, click on
the button Send in the corresponding line. The correspondin g annunciation is issued and can be read out
either from the event log of the SIPROTEC 4 device or from the substation control cen te r.
As long as the window is open, further tests can be performed.
Test in Message Direction
For all information that is transmitted to the cent ral st ation t est in S t at us Schedu led the desired options in the
list which appears:
• Make sure that each checking process is carried out carefully without causing any danger (see above 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 station with this procedure. The function of the binary inputs itself is
tested separately.
Exiting the Test Mode
To end the System Interface Test, click on Close. The device is briefly out of service while the start-up routine
is executed. The dialogue box closes.
Test in Command Direction
The information transmitted in command direction must be indicated by the central station. Check whether the
reaction is correct.
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3.3.3 Checking the Binary Inputs and Outputs
Prefacing Remarks
The binary inputs, outputs, and LEDs of a SIPROTEC 4 device can be individually and precisely controlled in
DIGSI. This feature is used to verify control wiring from the device to plant equipment (operational checks)
during commissioning. This test option should however definitely „not“ be used while the device is in service
on a live system.
DANGER!
Danger evolving from operating the equipment (e.g. circuit breakers, 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 com-
missioning. Do not under any circumstances check them by means of the testing mode during „real“ operation
performing transmission and reception of messages via the system interface.
Note
After termination of the hardware test, the device will reboot. Thereby, all annunciation buffers are erased. If
required, these buffers should be extracted with DIGSI prior to the test.
The hardware test can be carried out using DIGSI in the Online operating mode:
• Open the Online directory by double-clicking; the operating 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).
Stru ctu r e of the Test Dialogue Box
The dialog box is divided into three groups: BI for binary inputs, REL for output relays, and LED for light-emit-
ting diodes. On the left of each group is an accordingly labelled button. By double-clicking these button s you
can show or hide the individua l information of the selected group.
In the column Status the current status of the particular hardware component is displayed. It is displayed sym-
bolically. The actual states of the binary inputs and outputs are displayed by the symbol of opened and closed
switch contacts, those of the LEDs by a symbol of a lit or extinguished LED.
The opposite state of each element is displayed in the column Scheduled. The display is made in plain text.
The right-most column indica tes the commands or messages that are configured (masked) to the hardware
components.
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Figure 3-17 Test of the Binary Inputs and Outputs — Example
Changing the Opera ting State
To change the condition of a hardware component, click on the associated switching field in the Scheduled
column.
Password No. 6 (if activated during configuration) will be requested before the first hardware modification is
allowed. After entry of the correct password a condition change will be executed. F urther condition changes
remain possible while the dialog box is open.
Test of the Binary Outputs
Each individual output relay can be energized allowing a check of the wiring betwe en the output relay of the
6MD66x and the system, without having to generate the message that is assigned to the relay . As soon as the
first change of state for any of the output relays is initiated, all output relays are separated from the internal
device functions, and can only be operated by the hardware test function. This means, that e.g. a TRIP
command coming from a control command from the oper ator 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 Scheduled-cell in the dialog box.
• The test sequence must be terminated (refer to margin heading „Exiting the Procedure“), to avoid the initia-
tion of inadvertent switching operations by further tests.
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Test of the Binary Inputs
To test the wiring between the plant and the binary inputs of the 6MD66x, the condition in the system which
initiates the binary input must be generated and the response of the device checked.
To do this , the dialog bo x Hardware Test must again be opened to view the physical state of the binary inputs.
The password is not yet required.
Proceed as follows in order to check the binary inputs:
• Activate in the system each of the functions which cause the binary inputs.
• The response of the device must be checked in the Status column of the dialog box. To do this, the dialog
box must be updated. The options may be found below under the margin heading „Updating the Display“.
• Terminate the test sequence (see below under the margin heading „Exiting the Procedure“).
If however the effect of a binary inpu t must be checke d without carrying out any switching in the plant, it is pos-
sible to trigger individual binary inputs with the hardware test function. As soon as the first state change of any
binary input is triggered and the password no. 6 has been entered, all binary inputs are separated from the plant
and can only be activated via the hardware test function.
Test of the LEDs
The LEDs may be tested in a similar manner to the other input/output co mponents. As soon as you have initi-
ated the first state change for any LED, all LEDs are disconnected from the functionality of the device and can
only be operated by the hardware test function. This means e.g. that no LED is illuminated anymore by a device
function or by pressing the LED reset button.
Updating the Display
During the opening of the dialog box Hardware Test the operating states of the hardware components which
are current at this time are read in and displayed.
An update occurs:
• for each hardware component, if a command to change the condition is successfully performed,
• for all hardware components if the Update button is clicke d ,
• 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 closes. 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 the plant settings.
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3.3.4 Checking for Breaker Failure Protection
General
If the device is equipped with the breaker failure protection and this function is used, the integration of this pro-
tection function into the system must be tested under practical conditions.
Because of the manifold applications and various configuration possibilities of the plant it is not possible to give
a detailed description of the necessary test steps. It is important to consider the local conditions and the pro-
tection and plant drawings.
Before starting the circuit tests it is recommended to isolate the circuit breaker of the feeder to be tested at both
ends, i.e. line disconnectors and busbar disconnectors should be open so that the breaker can be operated
without risk.
Caution!
Also for tests on the local circuit breaker of the feeder a trip command to the surrounding circuit breakers can
be issued for the busbar.
Non-observance of the following measure can result in minor personal injury or property damage.
First disable the trip commands to the adjacent (busba r) breakers, e.g. by interrup ti ng the associated control
voltages.
Before the breaker is closed again for normal operation the trip command of the feeder protection routed to the
circuit breaker must be disconnected so that the trip command can only be initiated by the breaker failure pro-
tection.
Although the following list does not claim to be complete, it may also contain points which are to be ignored in
the current application.
Auxiliary Contacts of the CB
The circuit breaker auxiliary contact(s) form an essential part of the breaker failure protection system in case
they have been connected to the device. Make sure the correct assignment has been checked.
External Initiation Conditions
If the breaker failure protection can also be started by external protection devices, the external start conditions
are checked. Depending on the device version and the setting of the breaker failure protection, 1-pole or 3-pole
trip are possible. The pole discrepancy check of the device or the actual breaker may lead to 3-pole tripping
after 1-pole tripping. Therefore check first how the parameters of the breaker failure protection are set. See also
Section 2.9.2, addresses 3901 onwards.
In order for the breaker failure protection to be started, a current must flow at least through the monitored phase
and the earth. This may be a secondary injected current.
After every start the indication „BF Start“ (no. 1461) must appear in the spontaneous or fault indications.
If only 1-pole initiation is possible:
• Start by 1-pole trip command of the external protection L1:
Binary input functions „>BF Start L1“ and, if necessary, „>BF release“ (in spontaneous or fault indi-
cations). Trip command (depending on setting s ).
• Start by 1-pole trip command of the external protection L2:
Binary input functions „>BF Start L2“ and, if necessary, „>BF release“ (in spontaneous or fault indi-
cations). Trip command (depending on setting s ).
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• Start by 1-pole trip command of the external protection L3:
Binary input functions „>BF Start L3“ and, if necessary, „>BF release“ (in spontaneous or fault indi-
cations). T rip command (dependent on settings).
• Start by 3-pole trip command of the external protection via all three binary inputs L1, L2 and L3:
Binary input functions „>BF Start L1“, „>BF Start L2“ and „>BF Start L3“ and , if necessary,
„>BF release“ (in spontaneous or fault indi cations). 3-pole trip command.
For 3-pole initiation:
• Start by 3-pole trip command of the external protection :
Binary input functions „>BF Start 3pole“ and, if necessary, „>BF release“ (in spontaneous or fault
indications). T rip command (dependent on settings).
Switch off test current.
If start is possible without current flow:
• Starting by trip command of the external protection without current flow:
Binary input functions „>BF Start w/o I“ and, if necessary, „>BF release“ (in spontaneous or fault
indications). T rip command (dependent on settings).
Busbar Tr ipping
The most important thing is the check of the correct distribution of the trip commands to the adjacen t circuit
breakers in case of breaker failure.
The adjacent circuit breakers are those of all feeders which must be tripped in order to ensure interruption of
the fault current should the local breaker fail. These are therefore the circuit breakers of all feeders which feed
the busbar or busbar section to which the feeder with the fault is connected.
A general detailed test guide cannot be specified because the layout of the adja cent circuit breakers largely
depends on the system topology.
In particular with multiple busbars the trip distribution logic for the surrounding circuit breakers must be
checked. Here check for every busbar section that all circuit breakers which are connected to the same busbar
section as the feeder circuit breaker under observation are tripped, and no other breakers.
Tripping of the Remote End
If the trip command of the circuit breaker failure protection must also trip the circuit breaker at the remote end
of the feeder under observation, th e transmission channel for this remote trip must also be checked. This is
done together with transmission of other signals according to Sections „Testing of the Teleprotection Scheme
with ...“ further below.
Termination of the Checks
All temporary measures taken for testing must be undone, e.g. especially switching states, interrupted trip com-
mands, changes to setting values or individually switched off protection functions.
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3.3.5 Triggering Oscillographic Recording for Test
In order to verify the reliability of the protection relay even during inrush processes, closing tests can be carried
out to conclude the commissioning process. Oscillograhpic records provide the maximum information about the
behaviour of the protection relay.
Prerequisite
Along with the capability of storing fault recordings via pickup of the protection function, the 6MD66x also has
the capability of capturing the same data when commands are given to the device via the DIGSI software, the
serial interface, or a binary input. For the latter , the information „>Trig.Wave.Cap.“ must be allocated to a
binary input. In this case, a fault record is triggered e.g. via binary input when the protected object is energized.
Such a test fault record triggered externally (i.e. not caused by pickup of a protection function) is processed like
a normal oscillographic record, i.e. a fault log with number is generated which univocally id entifies an oscillo-
graphic record. However, these recordings are not displayed in the trip log as they are not fault events.
Start Test Measurement Record ing
To trigger test measurement recording with DIGSI, click on Test in the left part of the window. Double click in
the list view the Test Wave F or m entry (see Figure 3-18).
Figure 3-18 Triggering oscillographic recording with DIGSI — example
Oscillographic recording is immediately started. During the recording, an annunciation is output in the left area
of the status line. 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.
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3.3.6 Testing User-defined Functions
CFC Logic
The device has a vast capability for allowing functions to be defined by the user , especially with the CFC logic.
Any special function or logic added to the device must be checked.
Naturally, general test procedures cannot be given. Rather, the configuration of these user defined functions
and the necessary associated conditions must be known and verified. Of particular importance are possible
interlocking conditions of the switchgear (circuit breakers, isolators, etc.).
3.3.7 Trip/Close Test for the Configured Resource
Control by Local Command
If the configured operating devices were not switched su fficiently in the hardware test alre ady described, all
configured switching devices must be switched on and off from the device via the integrated control element.
The feedback information of the circuit breaker position injected via binary inputs is read out at the device and
compared with the actual breaker position. With 6MD66x this is easy to do with the control display.
The switching procedure is described in the SIPROTEC 4 System Description.The switching authority must be
set in correspondence with the source of commands used. With the switch mode it is possible to select between
interlocked and non-interlocked switching . Note that n on-interlocked switching constitutes a safety risk.
DANGER!
A test cycle successfully started by the automatic reclosure function can le ad to the closing of the
circuit breaker!
Non-observance of the following statement will result in death, severe personal injury or substantial property
damage.
Be fully aware that OPEN-commands sent to the circuit breaker can result in a trip-close-trip event of the circuit
breaker by an external reclosing device.
Control from a Remote Control Centre
If the device is connected to a remote substation via a system interface, the corresponding switching tests may
also be checked from the substation. Please also take into consideration that the switching authority is set in
correspondence with the source of commands used.
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3.4 Final Preparation of the Device
Firmly tighten all screws. Tighten all terminal screws, including those that are not used.
Caution!
Inadmissable tig htening torques
Non–observance of the following measure can result in minor personal injury or property dama ge.
The tightening torques must not be exceeded as the threads and termina l chambers may otherwise be dam-
aged!
In case service settings were changed, check if they are correct. Check if power system data, control and
auxiliary functions to be found with the configuration parameters are set correctly (Section 2). All desired ele-
ments and functions must be set ON. Keep a cop y of all of the in-service set ti n gs o n a PC .
Check the internal clock of the device. If necessary, set the clock or synchronize the clock if the element is not
automatically synchronized. For assistance, refer to the SIPROTEC 4 System Description /1/.
The indication buffers are deleted under MAIN MENU → Annunciation → Set/Reset, so that in the future they
only contain information on actual events and states (see also /1/). 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
/1/).
The counters of the operational measured values (e.g. operation counter, if available) are reset under Main
Menu → Measurement → Reset.
Press the ESC key, several times if necessary, to return to the default display. The default display appears in
the display (e.g. display of operation measured values).
Clear the LEDs on the front panel by pressing the LED key, so that they only show real events and states. In
this context, also output relays probably memorized are reset. Pressi ng the LED key also serves as a test for
the LEDs on the front panel because they should all light when the button is pushed. Any LEDs that are lit after
the clearing attempt are displaying actual conditions.
The green „RUN“ LED must be on. The red „ERROR“ LED must not be lit.
Close the protective switches. If test switches are available, then these must be in the operating position.
The device is now ready for operation.
■
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Technical Data 4
This chapter provides the technical data of the device SIPROTEC 6MD66x and its individual functions, includ-
ing the limiting values that under no circumstances may be exceeded. The electrical and functional data for the
maximum functional scope are followed by the mechanical specifications with dimensional diagrams.
4.1 General 250
4.2 Switching device control 262
4.3 Circuit Breaker Synchronisation 263
4.4 User defined functions (CFC) 265
4.5 Operational measured values 270
4.6 Circuit Breaker Failure Protection (optional) 272
4.7 Automatic Reclosure (optional) 274
4.8 Inter-relay communication 275
4.9 External instrument transformers 276
4.10 Additional functions 277
4.11 Dimensions 278
Technical Data
4.1 General
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4.1 General
4.1.1 Analog Inputs
Current Inputs
Voltage Inputs
Measuring Transducer Inputs
Rated system frequency fNom 50 Hz or 60 Hz (adjustable)
Rated current INom 1 A or 5 A
Burden per phase and ground path
- at IN = 1 A Approx. 0.05 VA
- at IN = 5 A Approx. 0.3 VA
Current overload capability
- thermal (RMS) 200 A for 1 s
15 A for 10 s
12 A continuous
- dynamic (peak value) 250 INom (half-cycle)
Precision
(MLFB pos. 7 = 1.5) ≤ 0.5% of measured value at 50 % to 120 % IN (under reference conditions)
Precision for 150% In
(MLFB pos. 7 = 2.6) ≤ 0.5% of measured value at 50% to 150% IN (under reference conditions)
Accuracy for 200% In
(MLFB-Pos. 7 = 3,7) ≤ 0.5 % of measured value for 50 % to 200 % IN (under reference conditions)
Secondary nominal voltage 80 V to 125 V
Measuring range 0 V to 170 V
Burden at 100 V Approx. 0.3 VA
Voltage overload capacity
- thermal (RMS) 230 V continuous
Precision ≤ 0.5 % of measured value at 50 % to 120 % UNom(under reference conditions)
Input direct current –20 mA to +20 mA
Overload capability ± 100 mA continuous
Input resistance 10 Ω
Power input 5.8 mW at 24 mA
Precision < 1 % of nominal value (under reference conditions)
Technical Data
4.1 General
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Limit Range Behaviour, Current
Limit Range Behaviour, Voltage
Limit Range Behaviour, Power
Limit Range Behaviour , cosΦ, sinΦ, Φ
Limit Range Behaviour, Frequency
Overflow
(MLFB pos. 7 = 1.5) Phase current > 1.2 x rated current
The derived quantities P, Q, S, cosΦ, sinΦ and Φ also overflow
as a result.
Overflow for 150% In
(MLFB pos. 7 = 2.6) Phase current > 1.5 x rated current
The derived quantities P, Q, S, cosΦ, sinΦ and Φ also overflow
as a result.
Overflow for 200% In
(MLFB-Pos. 7 = 3,7) Phase current > 2.0 time s th e no mi n al current
As a consequence, the derived quantities P, Q, S, cosΦ, sinΦ
and Φ also go into the overflow.
Overflow Secondary input voltage at the device > 120 Veff
The derived quantities P, Q, S, cosΦ, sinΦ and Φ also overflow
as a result.
Zero, invalid A phase voltage < 0.1 x rated voltage or the nominal apparanet
power S < 1 %
Overflow A phase current or a phase-earth voltage in overflow
Zero, invalid A phase voltage < 0.1 x rated voltage or the nominal apparanet
power S < 1 %
Overflow A phase current or a phase-earth voltage in overflow
Zero, invalid Frequency < 45 Hz or secondary input voltage at device < 10
Vrms
Overflow Frequency > 65 Hz
Technical Data
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4.1.2 Auxiliary voltage
Direct Voltage
Alternating voltage
4.1.3 Binary inputs and outputs
Binary inputs
Power supply via integrated converter
Nominal auxiliary direct voltage Uaux DC 24 V to 48 V DC 60 V/ 110 V/ 125 V
Permissible voltage ranges DC 19 V to 58 V DC 48 V to 150 V
Nominal auxiliary direct voltage Uaux DC 110 V/ 125 V/ 220 V/ 250 V
Permissible voltage ranges 88 V to 300 V
Superimposed AC ripple voltage,
Peak to peak, IEC 60 255-11
≤15 % of the auxiliary voltage
Quiescent power consumption Approx. 10.0 W
Power consumption plus energised relay Approx. 0.27 W
Bridging time for failure/short-circuit, IEC 60
255 255–11 ≤ 50 ms for U ≥ 110 V
≤ 20 ms for U ≥ 24 V
Power supply via integrated converter
Nominal auxiliary AC UHAC 115 V AC 230 V
Permissible voltage ranges AC 92 V to 132 V AC 184 V to 265 V
Variant Number
6MD662*- 35 (configurable)
6MD663*- 50 (configurable)
6MD664*- 65 (configurable)
Range of nominal direct voltage 2 4 V to 250 V , bipolar
Peak current at high level 80 mA (τ = 1.5 ms)
Binary input BI1....65
Current consumption, energised (indepen-
dent of the control voltage) Approx. 1.8 mA per BI
Pickup times approx. 4 ms
Switching thresholds adjustable with jumpers
for nominal direct voltages 24 V, 48 V, 60 V Uhigh ≥ 19 V
Ulow ≤ 10 V
for nominal direct voltages 110 V Uhigh ≥ 88 V
Ulow ≤ 44 V
for nominal direct voltages 220 V to 250 V Uhigh ≥ 176 V
Ulow ≤ 88 V
Maximum allowable direct voltage 300 V
Impulse filter on input 220 nF at 220 V with recovery time > 60 ms
Technical Data
4.1 General
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Output Relays
4.1.4 Communications interfaces
Operator Interface
Flag/command relay1)
Number and Information According to the order variant (allocatable)
Order variant
6MD662*- 25
6MD663*- 35
6MD664*- 45
Contacts per relay 1 NO contact
Turn on time < 9 ms
Turn off time < 4 ms
Switching capability ON 1000 W/VA 1)
Switching capability OFF 30 VA
40 W resistive
25 W/VA at L/R ≤ 50ms
Switching voltage 250 V
Permissible current per contact / inrush peak 5 A continuous
30 A ≤ 0.5 s
Permissible current per contact
On common path 5 A continuous 30 A for 0.5 s
Life contact 1 with 1 NO contact or 1 NC contact (switchable)
Switching capability ON 30 W/VA
Switching capability OFF 20 VA
Switching voltage 250 V
Permissible current 1 A continuous
1)Maximum permissible number of simultaneously energised relays: 29
Connection Front side, non-isolated, RS232, 9 pin D-subminiature female
connector for connection of a PC
Operation with DIGSI
Transmission Speed Min. 4800 Bd; max. 115 200 Bd;
Factory Setting: 38 400 Bd; Parity: HE'D
Maximum Distance of Transmission 49 feet (15 m)
Technical Data
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Service/Modem Interface
Inter-device Communication Interface
Connection Isolated interface for data transfer
Operatio n with DIGSI®
Transmission speed min. 4800 Bd; max. 115 200 Bd;
Factory setting 38 400 Bd
RS232/RS485 RS232/RS485 according to the ordering
variant
Connection for flush-mounted
case Rear panel, mounting location „C“, 9-pin D-
subminiature female connector
Surface-mounting housing At the housing mounted case on the case
bottom;
Shielded data cable
Test voltage 500 V; 50 Hz
RS232 Channel distance 49.215 ft. (15 m)
RS485 Channel di stance 3281 ft. (1000 m)
Fibre optic cable (FO) FO connector type ST connector
Connection for flush-mounted
case Rear panel, mounting location „D“
For panel surface-mounted
case At the housing mounted case on the case
bottom
Optical wavelength λ = 820 nm
Laser Class I according to EN
60825-1/-2 Using glass fibre 50 /125 μm or using glass
fibre 62.5/125 μm
Permissible link signal attenua-
tion max. 8 dB, with glass fibre 62.5/125 μm
Channel distance max. 0.93 mi. (1.5 km)
Character idle state Selectable, factory setting „Light off“
Transmission speed
electrical HDLC 125 kBd, 250 kBd, 1 MBd, 1.25 MBd, 2
MBd, 2.5 MBd, 3125 MBd
UART 115kBd, 250kBd
optical HDLC 125 kBd
UART 500 kBd
Isolated interface for data transfer
RS485 Connection for flush-mounted
case Rear panel, mounting location „C“, 9-pin D-
subminiature female connector
Surface-mounting case At the housing mounted case on the case
bottom;
Shielded data cable
Test voltage 500 V; 50 Hz
Channel distance max. 1000 m. (1 km)
Technical Data
4.1 General
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System Interface
PROFIBUS FMS and PROFIBUS DP
RS485 Connection for flush-mounted
case Rear panel, mounting location „E“, 9-pin D-
subminiature female connector
For panel surface-mounted
case At the housing mounted case on the case
bottom
Test voltage 500 V; 50 Hz
Transmission speed up to 1.5 MBd
Channel distance 1000 m at ≤ 93.75 kBd
500 m at ≤ 187.5 kBd
200 m at ≤ 1.5 MBd
Fibre optic cable FO FO connector type ST connector single ring / double ring accord-
ing to the order for FMS; for DP only double
ring available
Connection for flush-mounted
case Rear panel, mounting location „E“
For panel surface-mounted
case In console housing on the bottom side, only
RS485 1)
Transmission speed up to 1.5 MBd
Recommended: > 500 kBd with normal casing
≤ 57.6 kBd for the detached operation panel
Optical wavelength λ = 820 nm
Laser Class I according to EN
60825-1/-2 Using glass fibre 50/125 μm or using glass
fibre 62.5/125 μm
Permissible link signal attenua-
tion Max. 8 dB, with glass fibre 62.5/125 μm
Maximum channel distance
between two modules with re-
dundant optical ring topology,
baud rates ≥ 500 kB/s and glass
fibre 62.5/125 μm
6562 ft. (2000 m) for glass fibre 62.5/125 μm
With plastic fibre: 6.562 ft. (2 m)
At 500 kB/s, 5249.6 ft. (1600 m)
at 1.5 MB/s, 530 m
IEC 60,870-5-103
RS485 Isolated interface for data transfer to a master terminal
Connection for flush-mounted
case Rear panel, mounting location „E“, 9-pin D-
subminiature female connector
For panel surface-mounted
case At the housing mounted case on the case
bottom
Test voltage 500 V; 50 Hz
Transmission speed min. 4.8 kBd, max. 38.4 kBd
Factory setting 38.4 kBd
Channel distance max. 0.621 mi. (1 km)
Technical Data
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1) Common use of the OLM/G12 (OLM V3) with the optical PROFIBUS interfaces of the SIPROTEC® 4 devices
may only use the OLM/G12 in compatibility mode (DIL switch S7 = ON)! The reason for this is the fact that
the redundancy technology of the OLM V2 is implemented in the SIPROTEC® PROFIBUS interfaces, and
this varies from OLM V3. An OLM V3 behaves in the same manner as an OLM V2 in compatibility mode.
With an incorrect setting, secure data transmission cannot be guaranteed.
Time Synchronisation Interface
Fibre optics (FO) FO connector type ST connector
Connection for Flush-Mounted
Housing Rear panel, mounting location „E“
For surface-mounted case In console housing on the bottom side, only
RS485 1)
optical wavelength λ = 820 n m
Laser Class I according to
EN 60825-1/-2 When glass fibre used
50/125 μm or 62.5/125 μm when using fibr e
optics
Admissible optical signal atten-
uation Max. 8 dB, with glass fibre 62.5/125 µm
Channel distance 1.5 km. (2.5 kg)
Character idle state Selectable, factory setting „Light off“
Ethernet electrical (EN 100)
for IEC61850 Connection for Flush-Mounted
Housing Rear panel, mounting location „B“ 2 x RJ45
female connector 100BaseT acc. to
IEEE802.3
Connection for panel surface
mounting housing Not available
Test voltage (female connector) 500 V; 50 Hz
Transmission rate 100 MBit/s
Channel distance 20 m. (2.5 kg)
Time Synchronization DCF 77 / IRIG B Signal
(telegram format IRIG-B000)
Connection for Flush-Mounted Housin g Rear panel, mounting location „A“
9-pin D-subminiature female connector
For surface-mounted case At two-tier terminals on housing bottom
Rated signal voltages Selectable 5 V, 12 V or 24 V
Signal Levels and Burdens: Nominal signal input voltage
5 V 12 V 24 V
UIIHigh 6.0 V 15.8 V 31 V
UILow 1.0 V at IILow = 0.25 mA 1.4 V at IILow = 0.25 mA 1.9 V at IILow = 0.25 mA
IIHigh 4.5 mA to 9.4 mA 4.5 mA to 9.3 mA 4.5 mA to 8.7 mA
RI890 Ω at UI = 4 V 1930 Ω at UI = 8.7 V 3780 Ω at UI = 17 V
640 Ω at UI = 6 V 1700 Ω at UI = 15.8 V 3560 Ω at UI = 31 V
Technical Data
4.1 General
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4.1.5 Electrical Test
Regulations
Isolation Test
EMC Tests for Interference Immunity (Type Tests)
Standards: IEC 60255 (product standards)
ANSI/IEEE Std C37.90.0/.1/.2
DIN 57435 Part 303
See also standards for individual tests
Standards: IEC 60255-5 and IEC 60870-2-1
High Voltage Test (routine test) All circuits except
power supply, Binary Inputs, Communication Inter-
face and Time Synchronization Interfaces
2.5 kV (rms), 50 Hz
High voltage test (routine test) auxiliary voltage and
binary inputs DC 3.5 kV
V oltage test (routine test): only isolated communica-
tion and time synchronisation interfaces AC 500 V, 50 Hz
Impulse Voltage Test (type test) All Circuits Except
Communication and Time Synchronization Interfac-
es, Class III
5 kV (peak value); 1.2/50 µs; 0.5 J;
3 positive and 3 negative pulses at intervals of 1 s
Standards: IEC 60255-6 und -22, (product standards)
EN 50082-2 (generic standard)
DIN 57435 Teil 303
High frequency test
IEC 60255-22-1, class III and
VDE 0435 part 303, Class III
2,5 kV (peak value); 1 MHz; τ = 15 µs;
400 pulses per s; test duration 2 s ; Ri = 20 0 Ω
Electrostatic discharge
IEC 60255-22-2, Class IV and
IEC 61000-4-2, Class IV
8 kV contact discharge; 15 kV air discharge, both polari-
ties; 150 pF; Ri = 330 Ω
Exposure to HF field, non-modulated
IEC 60255-22-3 (Report), Class III 10 V/m; 27 MHz to 500 MHz
Irradiation with HF field, amplitude mo du l at ed
IEC 61000-4-3, Class III 10 V/m; 80 MHz to 1000 MHz; 80 % AM; 1 kHz
Irradiation with HF field, pulse modulated
IEC 61000-4-3/ENV 50 204, Class III 10 V/m; 900 MHz; repetition frequency 200 Hz; duty
cycle of 50 %
Fast Transient Disturbance Variables / Burst
IEC 60255-22-4 and IEC 61000-4-4, Class IV 4 kV; 5/50 ns; 5 kHz; burst length = 15 ms; repetition
300 ms; both polarities; Ri = 50 Ω; test duration 1 min
High energy surge voltages (SURGE),
IEC 61000-4-5 Installation Class 3
Auxiliary voltage
Measuring inputs, binary inputs and relay outputs
Impuls: 1,2/50 µs
common mode: 2 kV; 12 Ω; 9 µF
diff. mode: 1 kV; 2 Ω; 18 µF
common mode: 2 kV; 42 Ω; 0,5 µF
diff. mode: 1 kV; 42 Ω; 0,5 µF
Line conducted HF, 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 IV
IEC 60255-6
30 A/m continuous; 300 A/m for 3 s; 50 Hz 0.5 mT; 50 Hz
Technical Data
4.1 General
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EMC Tests for Interference Emission (Type Test)
Oscillatory Surge Withstand Capability
ANSI/IEEE Std C37.90.1 2.5 to 3 kV (peak value); 1 to 1.5 MHz; damped oscilla-
tion; 50 surges per s; test duration 2 s; Ri = 150 Ω to
200 Ω
Fast Transient Surge Withstand Cap.
ANSI/IEEE Std C37.90.1 4 kV to 5 kV : 10/150 ns: 50 pulses per s; both polarities:
test duration 2 s: Ri = 80 Ω
Radiated Electromagnetic Interference
ANSI/IEEE C37.90.2 35 V/m; 25 MHz to 1000 MHz
Damped Oscillations
IEC 60694, IEC 61000-4-12 2.5 kV (peak value), polarity alternating 100 kHz, 1 MHz,
10 MHz and 50 MHz, Ri = 200 Ω
Standard: EN 50081-* (generic standard)
Radio Noise V o ltage to Lines, Only Power Supply
Voltage
IEC-CISPR 22
150 kHz up to 30 MHz
Limit Class B
Interference field strength
IEC-CISPR 22 30 MHz to 1000 MHz Limit Class B
Harmonic Currents on the Network Lead at 230 V AC
IEC 61000-3-2 Device is to be assigned Class D; (applies only for
devices with > 50 VA power consumption)
Voltage fluctuations and flicker on the network in-
coming feeder at 230 VAC
IEC 61000-3-3
Limits are observed
Technical Data
4.1 General
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4.1.6 Mechanical Tests
Vibration and Shock Stress during Stationary Use
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
10 Hz to 60 Hz: ± 0.075 mm amplitude;
60 Hz to 150 Hz: 1 g acceleration
Frequency sweep rate 1 Octave/min 20 cycles in 3 orthogonal
axes
Shock
IEC 60255-21-2, Class 1;
IEC 60068-2-27
Semi-sinusoidal
5 g acceleration, duration 11 ms, each 3 shocks in both direc-
tions of the 3 axes
Seismic Vibration
IEC 60255-21-3, Class 1;
IEC 60068-3-3
Sinusoidal
1 Hz to 8 Hz: ±3.5 mm amplitude (horizontal axis)
1 Hz to 8 Hz: ±1.5 mm amplitude (vertical axis)
8 Hz to 35 Hz: 1 g acceleration (horizontal ax is)
8 Hz to 35 Hz: 0.5 g acceleration (vertical axis)
Frequency sweep 1 octave/min
1 cycle in 3 orthogonal axes
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 15 Hz: 2 g acceler-
ation
Frequency sweep 1 octave/min
20 cycles in 3 orthogonal axes
Shock
IEC 60255-21-2, Class 1;
IEC 60068-2-27
Semi-sinusoidal
15 g acceleration, duration 11 ms,
3 shocks each in both directions of the 3 axes
Continuous Shock
IEC 60255-21-2, Class 1;
IEC 60068-2-29
Semi-sinusoidal
10 g acceleration, duration 16 ms,
1000 shocks each in both directions of the 3 axes
Note: All stress test data apply for devices in factory packaging.
Technical Data
4.1 General
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4.1.7 Climatic stress
Temperatures
Humidity
4.1.8 Deployment Conditions
Standards: IEC 60255-6
Type tested (acc. to IEC 60086-2-1 and -2, Test
Bd, for 16 h) –5 °C to +55 °C
Permissible temporary operatin g temperature
(tested for 96 h) –20 °C to +70 °C in quiescent state, i.e. no pickup and no
indications
(legibility of display may be restricted from +131 °F (+55
°C))
Recommended for permanent operation (accord-
ing to IEC 60 255-6) +23 °F to +131 °F (–5 °C to +55 °C)
Limiting temperatures fo r storage –13 °F to +131 °F (–25 °C to +55 °C)
Limit temperatures during transport –13 °F to +158 °F (–25 °C to +70 °C)
Storage and transport of the device with factory packaging!
Limiting temperatures fo r normal operation (i.e.
output relays not energized) –4 °F to +158 °F (–20 °C to +70 °C)
Limiting temperatures with maximum load (max.
cont. permissible input and output quantities) –23 °F to +104 °F (–5 °C to +40 °C)
Permissible humidity Mean value per year ≤ 75 % relative humidity; on 56 days of the
year up to 93 % relative humidity; condensation must be avoided!
Siemens recommends that all devices be installed such that they are not exposed to direct sunlight, nor
subject to large fluctuations in temperature that may cause condensation to occur.
The protective device is designed for use in an indu strial environment and an elec trical 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 protective
device should, as a rule, be equipped with suitable surge suppression components.
• For substations with operating voltages of 100 kV and above, all external cables should be shielded with a
conductive shield grounded at both ends. For subs tations with lower operating voltages, no special mea-
sures are normally required.
• Do not withdraw or insert individual modules or boards while the protective device is energized. In with-
drawn condition, some components are electrostatically endangered; during han dling the ESD standards
(for Electrostatic Sensitive Devices) must be observed. They are not endangered when inserted into the
case.
Technical Data
4.1 General
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4.1.9 Construction designs
Case 7XP20
Dimensions See dimensional draw-
ings, Section 4.11
Weight (maximum number of components ) approx.
662 in flush-mount case 10 kg. (2.5 kg)
663 in flush-mount case 23.1525 lb. (10.5 kg)
664 in flush-mount case 24.255 lb. (11 kg)
663 in case for detachted operator panel 27.5625 lb. (12.5 kg)
664 in case for detachted operator panel 28.665 lb. (13 kg)
Detached operator panel 5.5125 lb. (2.5 kg)
International protec tion under IEC 60 529
For equipment of the flush-mount housing
Front IP 51
Rear IP20
In flush-mount case and in model with detached operator panel
Front IP 51
Rear IP 50
For personal protection IP 2x with cover cap
Technical Data
4.2 Switching device control
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4.2 Switching device control
Number of controlled switchgear units Depends on the number of binary inputs and outputs avail-
able
- 662 2-pin command output: 5 switchgears
1 1/2-pin command output: 6 switchgears
- 663 2-pin command output: 8 switchgears
1 1/2-pin command output: 10 switchgears
- 664 2-pin command output: 11 switchgears
1 1/2-pin command output: 14 switchgears
Interlocking Freely programmable interlocking
Indications Single point, double point, output, tagging and tap indica-
tions, bit patterns and counters
Commands Single command / double command
Pulse and continuous outputs
Switching command to circuit breaker 1-, 11/2 - and 2-pin
Programmable logic controller PLC logic, graphic input tool
Local control Control via menu control, control keys
Assignment of function keys
Remote control Using communication interfaces
Using substation automation system (e.g. SICAM)
Using DIGSI® (e.g. via Modem)
Technical Data
4.3 Circuit Breaker Synchronisation
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4.3 Circuit Breaker Synchronisation
Operating modes
Test programs Synchroni sation check,
Line de-energized — busbar energized
live bus / dead line
dead bus and dead line
bypassing,
or combination of them
Synchronisation Closing the circuit breaker und er synchronous and asyn-
chronous power conditions possible (with circuit breaker
operating time )
Voltages
Maximum working voltage 20 V to 140 V (phase-to-phase) (1 V increments)
V< for dead status
V> for live status 1 V to 60 V (phase-to-phase) (1 V increments)
20 V to 125 V (phase-to-phase) (1 V increments)
Tolerances
Dropout 2 % of pickup value or 2 V
Approx. 0.9 (V>) or 1.1 (V<); max. 1 V
Δ V measurements
Quantity difference
Tolerance 0.5 V to 50 V (phase-to-phase) (i ncrements 0.1 V)
1 V
Synchronous power conditions
ΔΦ Measurement
Tolerance 1 ° to 90 ° (increments 1 °)
2 °
Δf-measurement
Tolerance 10 mHz to 100 mHz (increments 1 mHz)
20 mHz
The maximum permissible frequency difference depends
on the circuit breaker operating time
Max. angle error 5 ° for Δf ≤ 2Hz
Enable delay 0.00 s to 60.00 s (0.01 s increments)
Asynchronous power conditions
Δf-measurement
Tolerance 0.03 Hz to 2.00 Hz (0.01 Hz increments)
20 mHz
The maximum permissible frequency difference depends
on the circuit breaker operating time
Synchronous/asynchronous limits 10 mHz to 100 mHz (increments 1 mHz)
Circuit breaker operating time 0.01 s to 0.60 s (0.01 s increments)
Times
Minimum measuring time approx. 50 ms
approx. 0.5 s (for df/dt not corrected)
approx. 1.6 s (for df/dt corrected)
Synchronisation function delay after start 250 ms
1.5 s with active Filter LFO
Maximum wait time (max. synchronisation dura-
tion 0.01 s to 600.00 s (0.01 s increments)
Tolerance of all timers 1 % of setting value or 10 ms
Technical Data
4.3 Circuit Breaker Synchronisation
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Operating range
Synchrocheck at rated frequency 50 Hz ± 4Hz
60 Hz ± 4Hz
Technical Data
4.4 User defined functions (CFC)
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4.4 User defined functions (CFC)
Function blocks and their possible ass ignment to the task levels
Function Bloc k Explanation Sequence Le ve l
MW_
BEARB
PLC1_
BEARB
PLC_
BEARB
SFS_
BEARB
ABSVALUE Magnitude Calculation X — — —
ADD Addition XXXX
ALARM Alarm XXXX
AND AND - Gate XXXX
BLINK Blink module XXXX
BOOL_TO_CO Boolean to Control (conversion) — X X —
BOOL_TO_DI Boolean to Double Point (conversion) — X X X
BOOL_TO_IC Bool to Internal SI, Conversion — X X X
BUILD_DI Create Double Point Annunciation — X X X
CMD_CANCEL Cancel Command — — — X
CMD_CHAIN Switching Sequence — X X —
CMD_INF Command Information — — — X
COMPAREMetered value comparison XXXX
CONNECT Connection — X X X
COUNTERMeter XXXX
CV_GET Decodes a metered value XXXX
D_FF D- Flipflop — X X X
D_FF_MEMOStatus Memory for Restart XXXX
DI_GET_STATUS Decode status of double-point indica-
tion XXXX
DI_SET_ST ATUS Generate double-point indication with
status XXXX
DI_TO_BOOL Double Point to Boolean (conversion) — X X X
DINT_TO_REALAdapter XXXX
DIST_DECODE Converts a double-point indication
with status into four single-point indi-
cations with status
XXXX
DIV Division XXXX
DM_DECODEDecode Double Point XXXX
DYN_OR Dynamic OR XXXX
LIVE_ZERO X — — —
LONG_TIMER Timer (max.1193h) XXXX
LOOP Feedback Loop XXXX
LOWER_SETPOINT Lower Limit X — — —
MEMORY Data storage XXXX
MUL Multiplication XXXX
MV_GET_STATUSDecodes the status of a value XXXX
MV_SET_STATUSSets the status of a value XXXX
NAND NAND - Gate XXXX
NEG Negator XXXX
NOR NOR - Gate XXXX
Technical Data
4.4 User defined functions (CFC)
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Device-specific CFC blocks
Table 4-1 BOST A TE - The block reads out the status of an output relay and outputs it as a Boolean value.
OR OR - Gate X X X X
REAL_TO_DINT Adapter X X X X
REAL_TO_UINT Conversion X X X X
RISE_DETECT Edge detector X X X X
RS_FF RS- Flipflop — X X X
RS_FF_MEMO RS- Flipflop with status memory — X X X
SI_GET_STATUS Decodes the status of a single-point
indication XXXX
SI_SET_STATUS Generates a single-point indication
with status XXXX
SQUARE_ROOT Root Extractor X X X X
SR_FF SR- Flipflop — X X X
SR_FF_MEMO SR- Flipflop with status memory — X X X
ST_AND AND gate with status X X X X
ST_NOT Inverter with status X X X X
ST_OR OR gate with status X X X X
SUB Substraction X X X X
TIMER Timer — X X —
TIMER_SHORT simple timer — X X —
UINT_TO_REAL Conversion X X X X
UPPER_SETPOINT Upper Limit X — — —
X_OR XOR - Gate X X X X
ZERO_POINT Zero Supression X — — —
Function Block Explanation Sequence Level
MW_
BEARB
PLC1_
BEARB
PLC_
BEARB
SFS_
BEARB
Name Type Meaning Default
Input BO UINT Number of the output relay 0
Number STATE BOOL Status of the output relay FALSE
Task levels: Recommendation: This block should be placed in the MW-BEARB level; it will be
updated cyclically there.
Note: In the task levels PLC1_BEARB and PLC_BEARB the changes of the
output relay are not trigger event for these levels. This levels are only triggered
by changes of indications routed to them.
Behaviour of the inputs and
outputs: If the output relay with the number BO is available and the status of the associ-
ated output relay is active, STATE = TRUE is set, otherwise STATE = FALSE.
Technical Data
4.4 User defined functions (CFC)
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Table 4-2 ASWITCH - This block allows switching between two REAL inputs (RMS values).
Table 4-3 COUNTACTIVE – This block calculates the number of active inputs. This block is a generic
block for which you can define th e number of the summands between 2... 120.
Name Type Meaning Default
Input SWITCH BOOL Analog value selection FALSE
IN1 REAL Analog value 0.0
IN2 REAL Analog value 0.0
Output OUT REAL Selected analog value
Task levels: Recommendation: In the task levels PLC1_BEARB and PLC_BEARB since
these are trig gered directly.
Note: If you are using this block in the task levels MW_BEARB and SFS_BEARB,
a change of the SWITCH signal will only be recognized if it lasts longer than the
processing cycle of the task level.
Behaviour of the inputs and
outputs:
Name Type Meaning Default
Input X1 BOOL Input value FALSE
X2 to X120 BOOL Input value FALSE
Output Y UINT Number of the “TRUE” input values 0
Task levels: Recommendation: In the task levels PLC1_BEARB and PLC_BEARB since
these are trig gered directly.
Note: If you are using this block in the task levels MW_BEARB and SFS_BEARB,
a change of the SWITCH signal will only be recognized if it lasts longer than the
processing cycle of the task level.
Behaviour of the inputs and
outputs:
Info: The COUNT ACTIVE block allows you to converge two Boolean inputs X1 and X2
to INTEGER (F ALSE=0, TRUE=1) and add them. The result of the addition is de-
livered at the output Y.
You can increase the number of inputs to maximal 120 via the context menu of
the block.
Technical Data
4.4 User defined functions (CFC)
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General Limits
Device-specific limits
1) When the limit is exceeded, an error message is output by the device. Consequently , the device start s mon-
itoring.
General Limits
1) When the limit is exceeded, an error message is output by the device. Consequently , the device start s mon-
itoring.
2) In a CFC chart with the blocks Timer or Short_Timer, the time resolution specified in the time values must
not be smaller than that of the device 6MD66xx < 10 ms). If time values are used that are smaller than the
time resolution, the timers will not start with the starting pulse.
Designation Limit Comments
Maximum number of all CFC charts
considering all task levels 3 2 When the limit is exceeded, an error message is output by
the device. Consequently, th e device is put into monitoring
mode. The red ERROR-LED lights up.
Maximum number of all CFC charts
considering one task level 16 Only Error Message
(record in device fault log, evolving fault in processing proce-
dure)
Maximum number of all CFC inputs
considering all charts 400 When the limit is exceeded, an error message is output by
the device. Consequently, th e device is put into monitoring
mode. The red ERROR-LED lights up.
Maximum number of inputs of one
chart for each task level (number of
unequal information items of the left
border per task level)
400 Only fault annunciation (record in device fault log); here the
number of elements of the left border per task level is count-
ed. Since the same information is indicated at the border
several times, only unequal information is to be counted.
Maximum number of reset-resistant
flipflops
D_FF_MEMO
350 When the limit is exceeded, an error message is output by
the device. Consequently, th e device is put into monitoring
mode. The red ERROR-LED lights up.
Code Limits 1)
Maximum number of synchronous chang es of chart inputs per task level 50
Maximum number of chart outputs per task level 150
Additional limits 1) for the following four CFC blocks.
Sequence Level Maximum number of blocks in the task levels.
LONG_TIMER UNIVERSAL_
TIMER2) SHORT_TIMER CMD_CHAIN D_FF_MEMO
MW_BEARB
unlimited 50
PLC1_BEARB 20 40 unlimited
PLC_BEARB
SFS_BEARB
Technical Data
4.4 User defined functions (CFC)
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Device-s pe c ific Limits
1) When the sum of TICKS of all blocks exceeds the limits before-mentioned, an error message is output by
CFC.
Processing times in TICKS required by the individual elements
Maximum number of TICKS 1) on the task levels
Priority class Limit in TICKS
MW_BEARB (Measured value processing) 3000
PLC1_BEARB (slow PLC processing) 5000
PLC_BEARB (fast PLC processing) 1000
SFS_BEARB (interlocking) 3000
Element Number of TICKS
Block, basic requirement 5
Each input more than 3 inputs for generic modules 1
Connection to an input signal 6
Connection to an output signal 7
Additional for each chart 1
CMD_CHAIN 34
D_FF_MEMO 6
LOOP 8
DM_DECODE 8
DYN_OR 6
ADD 26
SUB 26
MUL 26
DIV 54
SQUARE_ROOT 83
Technical Data
4.5 Operational measured values
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4.5 Operational measured values
Operational measured value s for currents IL1; IL2; IL3
in A (kA) primary and in A secondary or in % of INom
Range (MLFB pos. 7 = 1.5) 10 % to 120 % IN
Range for 150% In
(MLFB-Pos. 7 = 2.6) 10 % to 150 % IN
Range for 200% In
(MLFB-Pos. 7 = 3,7) 10 % to 200 % IN
Tolerance (MLFB pos. 7 = 1.5) < 1% of IN at | f-fN | < 5 Hz
and at 10% to 50% IN
< 0.5% of measured value at | f-fN | < 5 Hz
and at 50 % to 120 % IN
Tolerance for 150% In
(MLFB-Pos. 7 = 2.6) < 1 % of IN at| f-fN | < 5 Hz
and at 10 % to 50 % IN
< 0.5 % of the measured value at | f-fN | < 5 Hz
and at 50 % to 150 % IN
Tolerance for 200% In
(MLFB-Pos. 7 = 3,7) < 1 % of INom at | f-fNom | < 5 Hz
and at 10 % to 50 % INom
< 0.5 % of measured value at | f-fNom | < 5 Hz
and at 50 % to 200 % IN
Operational measured value s for voltages Umeasured
in kV primary, in U secondary or in % of UNom
Range 10 % to 120 % of UNom
Tolerance < 1 % of UNom at | f-fNom | < 5 Hz
and at 10 % to 50 % UNom
< 0.5 % of measured value at | f-fNom | < 5 Hz
and at 50 % to 120 % UNom
Operational measured values for power S, apparent power in kVAr (MVAr or GVAr) primary and in
% of SNom
Range 50 % to 120 % S/SNom
Tolerance *) < 0.5 % of measured value at | f-fNom | < 5 Hz
for U/UNom and I/INom = 50 % to 12 0 %
P, real power in kW (MW or GW) primary and in % PNom
Range for | cos Φ | = 0.707 to 1.00
Tolerance *) < 0.5 % of measured value at | f-fNom | < 5 Hz
For U/UNom and I/INom = 50 % to 120 %
Q, reactive power in kVAr (MVAr or GVAr) primary and in
% of QNom
Range For | sin Φ | = 0.707 to 1.00
Tolerance *) < 0.5 % of measured value at | f-fNom | < 5 Hz
For U/UNom and I/INom = 50 % to 120 %
Operating measured value for power factor cos ϕ
Range for | cos Φ | = 0.707 to 1.00
Tolerance < 0.5 % of measured value at | f-fNom | < 5 Hz
For U/UNom and I/INom = 50 % to 120 % and
at | cos Φ | < 0.707 < ± 0.01 %
Operating measured value for power factor sin ϕ
Range For | sin Φ | = 0.707 to 1.00
Tolerance < 0.5 % of the measured value at | f-fN | < 5 Hz
For U/UNom and I/INom = 50 % to 120 % and
at | sin Φ | < 0.707 < ± 0.01 %
Technical Data
4.5 Operational measured values
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Operational measured values for an gles ϕ in °
Tolerance < ± 0.5 °
Operational measured values for frequency f in Hz
Range ± 20 mHz at U/UNom = 10 % to 120 %
and at f = fNom ± 5Hz
Tolerance 20 mHz
Measuring transducer limit range behaviour
Current, overflow range
(MLFB pos. 7 = 1.5) Ph ase current > 1.2 IN
The derived quantities P, Q, C, sin ϕ, cos ϕ, and ϕ are then
invalid
Current, overflow range for 150% In
(MLFB-Pos. 7 = 2.6) Phase current > 1.5 IN
The derived quantities P, Q, C, sin ϕ, cos ϕ, and ϕ become
invalid in this case.
Current, overflow range for 200% In
(MLFB-Pos. 7 = 3,7) Phase current > 2.0 IN
The derived quantities P, Q, C, sin ϕ, cos ϕ, and ϕ are then
invalid
Voltage, overflow range Voltage > 1.2 INom
The derived phase-phase voltages and quantities P, Q, C,
sin ϕ, cos ϕ, and ϕ are then invalid
Power, zero range,
are invalid P, Q, S
A phase voltage < 0.1UNom or the nominal apparanet
power S < 1 %
Power, overflow range A phase current or a phase-earth voltage in overflow
Phase angle, zero range,
are invalid sin ϕ, cos ϕ, and ϕ
A phase voltage < 0.1UNom or the nominal apparanet
power S < 1 %
Frequency, zero range,
is invalid f < 45 Hz or
a phase voltage < 0.1UNom
Frequency, overfl ow range f > 65 Hz
Measured values, technical data of the 20 mA inputs
Rated input current DC - 20 to 20 mA
Measuring range DC -24 to 24 mA
Input resistance 1 Ω ± 1%
Active power input 5.76 W at INom = 24 mA
Tolerance 1.0 %, relative to rated value of 20 mA
Metered values as binary pulses
Max. metered frequency 50 Hz
Metered values calculated from current and voltage
Precision < 0.5 % of measured value at | f-fNom | < 5 Hz
and at 50 % to 120 % UNom
or at 50 % to 120 %, 150 %, 200 % IN
*) Tolerance values apply to system frequency 50 Hz; with system frequency 60 Hz < 1%
Technical Data
4.6 Circuit Breaker Failure Protection (optional)
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4.6 Circuit Breaker Failure Protection (optional)
Circuit breaker monitoring
Initiation conditi on s
1) Via binary inputs
Times
End Fault Protec tion
Pole Discrepancy Supervision
Current flow monitoring for IN = 1 A 0.05 A to 20.00 A Increments 0.01 A
for IN = 5 A 0.25 A to 100.00 A
Zero sequence current monitoring for IN = 1 A 0.05 A to 20.00 A Increments 0.01 A
for IN = 5 A 0.25 A to 100.00 A
Dropout to pickup ratio App ro x. 0.95
Tolerance 5 % of set value or 1 % of nominal current
Monitoring of circuit breaker auxiliary contact position
for 3-pole tripping binary input for CB auxiliary contact
for 1-pole tripping 1 bin ary input for auxili a ry con tact per pole or
1 binary input for series connection NO contact and NC contact
Note:
The circuit breaker failure protection can also operate without the indicated circuit breaker auxiliary contacts, but the func-
tion range is then reduced.
Auxiliary contacts are necessary for the circuit breaker failure protection f or tripping without or with a very low current flow
(e.g. Buchholz protection) and for stub fault protection and circuit breaker pole discrepancy supervision.
For circuit breaker failure protection Internal or external 1-pole trip 1)
Internal or external 3-pole trip 1)
Internal or external 3-pole tri p without current 1)
Pickup time approx. 25 ms with measured quantities present,
approx. 25 ms after switch-on of measured quantities
Drop-off time, internal (oversho ot time) ≤ 30 ms
Delay times for all stages 0.00 s to 30.00 s; ∞Increments 0.01 s
Tolerance 1 % of setting value or 10 ms
with signal transmission to the opposite line end
Pickup time approx. 25 ms
Time Delay 0.00 s to 30.00 s; ∞Increments 0.01 s
Tolerance 1 % of setting value or 10 ms
Initiation criterion not all pol es ar e closed or open
Pickup time approx. 55 ms
Monitoring time 0.00 s to 30.00 s; ∞Increments 0.01 s
Tolerance 1 % of setting value or 10 ms
Technical Data
4.6 Circuit Breaker Failure Protection (optional)
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Transformer class
Recommended CT class Type 0.5 FS 5 (connection to transducer!)
Technical Data
4.7 Automatic Reclosure (optional)
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4.7 Automatic Reclosure (optional)
Automatic Reclosures
Adaptive Dead Time/Reduced Dead Time/Dead Line Check
Number of reclosures Max. 8,
first 4 with individual settings
Type (depending on ordered version) 1-pole, 3-pole or 1-/3-pole
Control With pickup or trip command
Action times
Initiation possible without pickup and action time 0.01 s to 300.00 s; ∞Increments 0.01 s
Different dead times before
reclosure can be set for all operating modes and cycles 0.01 s to 1800.00 s; ∞Increments 0.01 s
Dead times after evolving fault recognition 0.01 s to 1800.00 s Increments 0.01 s
Reclaim time after reclosure 0.50 s to 300.00 s Increments 0.01 s
Blocking time after dynamic blocking 0.5 s
Blocking time after manual closing 0.50 s to 300.00 s; 0 Increments 0.01 s
Start signal monitoring time 0.01 s to 300.00 s Increments 0.01 s
Circuit breaker monitoring time 0.01 s to 300.00 s Increments 0.01 s
Adaptive dead time With voltage measurement or
with close command transmission
Action times
Initiation possible without pickup and action time 0.01 s to 300.00 s; ∞Increments 0.01 s
Maximum dead time 0.50 s to 3000.00 s Increments 0.01 s
Voltage measurement dead line or bus 2 V to 70 V (Ph-E) Increments 1 V
Voltage measurement live or bus 30 V to 90 V (Ph-E) Increments 1 V
Voltage measuring time 0.10 s to 30.00 s Increments 0.01 s
Time delay for close command transmission 0.00 s to 300.00 s; ∞Increments 0.01 s
Technical Data
4.8 Inter-relay communication
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4.8 Inter-relay communication
Number of stations in the IDC combination Max. 32
Number of information items which each IRC user
can apply to the IRC bus Max. 32
Minimum appearance duration for indications
which are to be transferred via inter relay commu-
nication
20 ms (due to IRC cycle time)
Technical Data
4.9 External instrument transformers
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4.9 External instrument transformers
Operational measured values
Connectable measurement boxes 1 or 2
Number of measurement points per measurement
box max. 2 * 6 for 7XV5662-2AD10 or 7XV5662-5AD10
(only PT 100)
max. 2 * 8 for 7XV5662-7AD10 (PT 100 or 20 mA setta-
ble by parameterization at the measurement box)
Measurement type temperature Pt 100 Ω or Ni 100 Ω or Ni 120 Ω
optionally 2-wire or 3-wire connection
Measuring range for 20 mA inputs
(only for 7XV5662-7AD10 ) 0 to 20 mA
Additional information can be found in the ma nual supplied with the 7XV566.
Technical Data
4.10 Additional functions
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4.10 Additional functions
Ti me Tagging
Commissioning Aids
Clock
Resolution for Event Log 1 m s
Maximum Time Deviation (Internal Clock) 0.01 %
Battery Lithium battery 3 V/1 Ah, type CR 1/2 AA
Message „Battery Fault“ for insufficient battery
charge
Operational measured values
Switching device test
Test alarms
Time Synchronisation DCF 77/IRIG B-Signal (telegram format IRIG-B000)
Binary input
Communication
Operating modes of the clock management
No. Operating Mode Comments
1 Internal clock Internal synchronisation via RTC (default)
2 IEC 60870-5-103 External synchronisation via system interface (IEC 60870-
5-103)
3 PROFIBUS FMS External synchronisation using PROFIBUS interface
4 Time signal IRIG B External synchronisation using IRIG B
5 Time signal DCF77 External synchronisation via time signal DCF 77
6 Time signal synchro-box External synchronisation via the time signal SIMEAS-
Synch.Box
7 Pulse via binary input External synchronisation with pulse via binary input
8 Fi eld bus (DNP, Modbus) External synchronisation using field bus
9 NTP (IEC 61850 ) External synchronisation using system interface (IEC
61850)
Technical Data
4.11 Dimensions
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4.11 Dimensions
4.11.1 Panel flush mounting and cabinet flush mounting
Figure 4-1 Dimensional drawing of a 6MD66x for panel surface and cabinet mounting
Technical Data
4.11 Dimensions
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4.11.2 Surface mounting with detached operation panel or without operation panel
Figure 4-2 Dimensional drawing of a 6MD66x for surface mounting with/without op erator control unit
Technical Data
4.11 Dimensions
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4.11.3 Detached Operator Panel
Figure 4-3 Dimensional drawing of a detached operator panel
Technical Data
4.11 Dimensions
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4.11.4 D-subminiature Connector of Dongle Cable (Panel or Cubicle Door Cutout)
Figure 4-4 Dimensions of panel flush or cubicle door cutout of D-subminiature female connector of dongle
cable
■
Technical Data
4.11 Dimensions
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Appendix A
This appendix is primarily a reference for the experienced user . It contains the ordering data, overview and con-
nection diagrams, default settings as wel l as tables wit h all parameters and information for the device with its
maximum extent.
A.1 Ordering Information and Accessories 284
A.2 Terminal Assignments 288
A.3 Connection Examples 303
A.4 Default Settings 314
A.5 Protocol-dependent Functions 318
A.6 Functional Scope 319
A.7 Settings 321
A.8 Information List 336
A.9 Group Alarms 358
A.10 Measured Values 359
Appendix
A.1 Ordering Information and Accessories
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A.1 Ordering Information and Accessories
A.1.1 Ordering Information
A.1.1.1 6MD66x V 4.82
6 7 8 9 10 11 12 13 14 15 16 17 18 19
High-voltage bay
controller 6 M D 6 6 — — 0 + L
Equipment Item 6
35 1-point indications
22 1-pole single commands (can also be co mpiled with 2-pole commands and double comman ds)
Three current transformers, four voltage transformers, two measurement inputs 20 mA
2
50 1 point indications
32 1-pole single commands (can also be co mpiled with 2-pole commands and double comman ds)
Three current transformers, four voltage transformers, two measurement inputs 20 mA
3
65 1 point indications
42 1-pole single commands (can also be co mpiled with 2-pole commands and double comman ds)
Three current transformers, four voltage transformers, two measurement inputs 20 mA
4
Rated curre nt Item 7
IN = 1 A 1
IN = 1 A 150% In 2
IN = 1 A 200% In 3
IN = 5 A 5
IN = 5 A 150% In 6
IN = 5 A 200% In 7
Power Supply, Binary Input Pickup Threshold Setting Item 8
DC 24 Vto 48 V, binary inpu t threshold 19 V 1) 2
DC 60 V, binary input threshold 19 V 1) 3
DC 110 V, binary input threshold 88 V 1) 4
DC 220 V to 250 V, binary input threshold 176 V 1) 5
Construction Item 9
Surface-mounting case, detached operator panel, installation in a low-voltage compartment
Plug-in terminals (2 pin / 3 pin conn ectors) 2) A
Surface-mounting case, no operator panel, installation in a low-voltage compartment
Plug-in terminals (2 pin / 3 pin conn ectors) 2) B
Surface-mounting case, detached operator panel, installation in a low-voltage compartment
Screw-type terminals (direct connection / ring and spade lugs) 2) C
Flush mounted case with integrated local operati on (graphic display, keyboard)
Plug-in terminals (2/3 pin conn ectors) D
Flush mounted case with integrated local operati on (graphic display, keyboard)
Screw-type terminals (direct conne ction / ring and spade lugs) E
Surface-mounting case, no operator panel, installation in a low-voltage compartment, screw-type terminals
(direct connection / ring and spade lugs) 2) F
Appendix
A.1 Ordering Information and Accessories
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Region-specific Defau lt / Language Settings and Fu nction Versions Item 10
Region DE, 50 Hz, IEC, Language German (Language can be cha nged) A
Region World, 50 Hz/60 Hz, IEC/ANSI, Language English (Language can be changed) B
Region US, 60 Hz, ANSI, Language American English (language can be changed) C
Region world, 50 Hz/60 Hz, IEC/ANSI, language French (language changeable) D
Region World, 50 Hz/60 Hz, IEC/ANSI, Language Spanish (language can be changed) E
System Interface (Rear Side, Port B) Item 11
No system interface 0
IEC-Protocol, electrical RS485 2
IEC-Protocol, Optical, 820 nm, ST-Connector 3
PROFIBUS FMS Slave, electrical RS485 4
PROFIBUS FMS Slave, optical, single ring, ST connector 5
PROFIBUS FMS Slave, optical, double ring, ST connector 6
For further inte rface options see Additional Information L 9
Service/Function Interface (Rea r of Device, Interface C and D) Item 12
No DIGSI interface at the back 0
DIGSI/modem electrical RS232, port C 1
DIGSI/modem/7XV5662 measurement box, electrical RS485, port C 2
DIGSI/modem/7XV5662 measurement box, optical 820 nm, ST connector, port D 3) 3
Inter-device communication, electrical RS485, port C 4
Inter-device communication, electrical RS485, port C and DIGSI optical 820 nm, ST connector, port D 3) 5
Control System Functionality Pos. 14 Pos. 15
Full functionality (measured value processing and display), with CB synchronization A A
No measured value processing, no MW display, with synchronization 4) FA
Full functionality (measured value processing and display), without CB synchronization A F
No measured value processing, no MW display, without synchronization 4) FF
Protection Functi onality Pos. 16
Without 0
with the automatic reclosure function (AR) incl. fault record 1
with circuit breaker failure protection (CBF) incl. fault record 2
with automatic reclosure (AR) and circuit breaker failure protection (CBF) incl. fault record 3
with the fault record functionality 4
Appendix
A.1 Ordering Information and Accessories
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1) The threshold can be changed for each me asuring input between 19 V, 88 V and 176 V
2) Can only be ordered if the 6th digit is „3“ or „4“
3) Not for double Profibus DP (11th position = 9 and 17th to 19th position = L1A)
4) Only if 16th position = 0 (without protection function)
A.1.2 Accessories
Exchangeable interface modules
Name Order No.
RS485 C53207-A351-D642-1
FO 820 nm C53207-A351-D643-1
PROFIBUS FMS RS485 C53207-A351-D603-1
PROFIBUS FMS Double ring C53207-A351-D606-1
PROFIBUS FMS single ring C53207-A351-D609-1
Measurement box
Designation Order number
Measurement box 6x RTD, Uaux = AC/DC 24 V to 60 V 7XV5662-2AD10-0000
Measurement box 6x RTD, Uaux = AC/DC 90 V to 240 V 7XV5662-5AD10-0000
Measurement box 8x RTD/20 mA , Uaux = AC/DC 24 V to 240 V 7XV5662-7AD10-0000
RS485/FO converter
RS485/FO converter Order No.
820 nm; FC–Connector 7XV5650-0AA00
820 nm, with ST–Connector 7XV5650-0BA00
Optical Link Module (OLM)
Name Order No.
Optical Link Module 6GK1502–3CB10
Power supply 24 VDC for OLM 7XV5810–0BA00
Additional information L on further system interfaces (device rear)
(only if item 11 = 9)
Item 17 Item 18 Item 19
PROFIBUS DP Slave, RS485 L 0 A
PROFIBUS DP Slave, double electrical RS485 (second module on port D) L 1 A
PROFIBUS DP Slave, 820 nm, optical double ri ng, ST connector L 0 B
IEC61850, 100 MBit Ethernet, elec trical, double, RJ45-Connector L 0 R
IEC 61850, 100 Mbit Ethernet, optical, dou ble, Duplex-LC connector L 0 S
Appendix
A.1 Ordering Information and Accessories
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Cover caps
Covering cap for terminal block type Order No.
18-pin voltage terminal, 12-pin current terminal C73334-A1-C31-1
12-pin voltage terminal, 8-pin current terminal C73334-A1-C32-1
Short-circuit links
Covering cap for terminal typ e Order No.
Voltage terminal (18-pin, 12-pin) C73334-A1-C34-1
12-pin/8-pin voltage terminal C73334-A1-C33-1
Socket housing
Socket housing Order No.
2-pin C73334-A1-C35-1
3-pin C73334-A1-C36-1
Mounting rails for installation into a 19" rack
Name Order No.
Angle Strip (Mounting Rail) C73165-A63-C200-2
Battery
Lithium battery 3 V/1 Ah, type CR 1/2 AA Order No.
VARTA 6127 101 301
Panasonic BR-1/2AA
Interface Cable
Interface cable between PC and SIPROTEC Order No.
Cable with 9-pin male/female connections 7XV5100-4
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
288
A.2 Terminal Assignments
A.2.1 Panel Flush Mounting or Cabinet Mounting
6MD662*-*D/E (Page 1)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 289
6MD662*-*D/E (Page 2)
Figure A-1 General diagram for 662*-*D/E (panel flush mounted or cubicle mounted)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
290
6MD663*-*D/E (Page 1)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 291
6MD663*-*D/E (Page 2)
Figure A-2 General diagram for 663*-*D/E (panel flush mounted or cubicle mounted)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
292
6MD664*-*D/E (Page 1)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 293
6MD664*-*D/E (Page 2)
Figure A-3 General diagram for 664*-*D/E (panel flush mounted or cubicle mounted)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
294
A.2.2 Housing with Detached Operator Panel
6MD663*-*A/C (Page 1)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 295
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
296
6MD663*-*A/C (Page 2)
Figure A-4 General diagram 663*-*A/C (panel surface mounting with detached operator panel)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 297
6MD664*-*A/C (Page 1)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
298
6MD664*-*A/C (Page 2)
Figure A-5 General diagram 664*-*A/C (panel surface mounting with detached operator panel)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 299
A.2.3 Housing for installation without operator panel
6MD663*-*B/F (Page 1)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
300
6MD663*-*B/F (Page 2)
Figure A-6 General diagram 663*-*B/F (devices for panel surface mounting without operator panel)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 301
6MD664*-*B/F (Page 1)
Appendix
A.2 Terminal Assignments
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
302
6MD664*-*B/F (Page 2)
Figure A-7 General diagram 664*-*B/F (devices for panel surface mounting without operator panel)
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 303
A.3 Connection Examples
A.3.1 Connection Examples for Measured Values and Synchronization
Figure A-8 Transformer connections to a current transformer and a voltage transforme r
(1-phase measuring transducer packet)
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
304
Figure A-9 Transformer connections to 3 current transformers and 3 voltage transformers
(3-phase measuring transducer packet)
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 305
Figure A-10 Transformer connections to 2 current transformers and 2 voltage transforme rs for an Aron
connection and circuit breaker synchronization conne ction with VLL
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
306
Figure A-11 Connection of measure d values for the synchronization blocks 1 to 5
(measurement transducer connection in accordance with connection examples 1 and 2)
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 307
Figure A-12 Connection of measured values for the synchronization blocks 6 to 8
(measurement transducer connection in accordance with connection examples 1 and 2)
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
308
A.3.2 Configuration Examples for Breaker Failure Protection and Automatic
Reclosure
Figure A-13 Example allocation of the measuring inputs for the breaker failure pr otection
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 309
Figure A-14 Example allocation of the trip commands from breaker failure protection
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
310
Figure A-15 Example allocation of the trip commands from breaker failure pro tection and control
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 311
Figure A-16 Example allocation of the auxiliary contacts with identical circuit breaker for BF protection and
AR and 1-pole signals
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
312
Figure A-17 Example allocation of the auxi liary contacts with identical circuit breaker for BF protection and
AR and 3-pole signals
Appendix
A.3 Connection Examples
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 313
A.3.3 Connection Examples for Measurement Boxes
Figure A-18 Electrical conne ction (RS485) of a measurement box
Figure A-19 Optical connection (FO) of a measurement box
Figure A-20 Electrical connection (RS485) of two measurement boxes
Appendix
A.4 Default Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
314
A.4 Default Settings
When the device leaves the factory, a large number of LED indications, bina ry inputs and outputs as well as
function keys are already preset. They are summarised in the following table.
A.4.1 LEDs
Table A-1 LED Indication Presettings
A.4.2 Binary Input
Table A-2 Binary input presettings for all devices and ordering varian ts
A.4.3 Binary Output
Table A-3 Output relay presettings for all devices and ordering variants
LEDs Allocated Function
LED none
Binary Input Alloc ate d Func ti on Function No. Des crip tio n
BI6 Q0 circuit breaker Q0
BI7 Q0 circuit breaker Q0
BI8 Q1 bus disconnector Q1
BI9 Q1 bus disconnector Q1
BI10 Q2 bus disconnector Q2
BI11 Q2 bus disconnector Q2
BI12 Q8 earthing isolator Q8
BI13 Q8 earthing isolator Q8
BI14 Q9 feeder disconnector Q9
BI15 Q9 feeder disconnector Q9
Binary Output Allocated Function Function No. Description
BO1 Q0 circuit breaker Q0
OPEN - -
BO2 Q0 circuit breaker Q0
CLOSE - -
BO3 Q1 bus disconnector Q1
OPEN - -
BO4 Q1 bus disconnector Q1
CLOSE - -
BO6 Q0 circuit breaker Q0
Common contact - -
BO7 Q2 bus disconnector Q2
OPEN - -
BO8 Q2 bus disconnector Q2
CLOSE - -
BO9 Q1 bus disconnector Q1
Common contact - -
BO10 Q2 bus disconnector Q2
Common contact - -
Appendix
A.4 Default Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 315
A.4.4 Function Keys
Table A-4 Applies to all devices and ordered variants
A.4.5 Default Display
Figure A-21 Default display 6MD66x
BO11 Q8 earthing isolator Q8
OPEN - -
BO12 Q8 earthing isolator Q8
CLOSE - -
BO15 Q9 feeder disconnector Q9
OPEN - -
BO16 Q9 feeder disconnector Q9
CLOSE - -
BO19 Q8 earthing isolator Q8
Common contact - -
BO20 Q9 feeder disconnector Q9
Common contact - -
Binary Output Allo cated Function Function No. Description
Function Keys Allocated Function
F1 Display of operational indications
F2 Display of the primary operational measured values
Appendix
A.4 Default Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
316
A.4.6 Pre-defined CFC Charts
A CFC is already installed when the SIPROTEC® 4 device is delivered.
Key switches
Figure A-22 C FC cha rt keyswitches
By interconnecting both DI_TO_BOOL blocks, the Switching Authority function of both key switches of the
device is implemented.
Interlocking
Figure A-23 CFC chart interlocking 1/2
Appendix
A.4 Default Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 317
Figure A-24 CFC chart interlocking 2/2
The CFC chart starts the interlocking check which is performed when switching operations of switching ele-
ments linked on the left side are executed.
Appendix
A.5 Protocol-dependent Functions
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
318
A.5 Protocol-dependent Functions
Protocol → IEC 60870–5–103 IEC 61850 Ethernet
(EN100)
Inter-relay commu-
nication
(IRC, optional)
PROFIBUS DP PROFIBUS FMS
Function ↓
Operational measured
values Yes Yes Yes
(without current
message)
Yes
Metered values Yes Yes Yes
(without current
message)
Yes
Indications Yes Yes (setting tag-
gings; without time
stamp)
Yes
(without time stamp) Yes
Commands According to
VDEW (no system
interlocking with
local control)
According to VDEW
(no system inter-
locking with local
control)
Yes (setting tag-
gings; without time
stamp)
Yes
(without status
information)
Yes
Time synchronisation Yes Yes Yes
(not available with
all control centres)
Yes
Commissionin g ai d s
Measured value
indication bl o cki ng Yes Yes No Yes
Generation of test
indications Yes Yes Yes Yes
Physical properties
Transmission mode Cyclically/Event Cyclically/Event Cyclically Cyclically/Event
Baud rate 4800 to 38400
Baud up to 100 MBaud Up to 1.5 MBaud
(optical), up to
6 MBaud (electrical)
up to 1.5 MBaud
Type Electrical: RS485
Optical:
ST connector
Ethernet TP
Electrical: RS485
optical via external
converter
Electrical: RS485
Optical:
ST connector
(double ring)
Electrical: RS485
Optical:
ST connector
(single or double
ring)
Appendix
A.6 Functional Scope
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 319
A.6 Functional Scope
Addr. Parameter Setting Option s Default Setting Comm ents
0 MU V_1 Disabled
Enabled Disabled Measurement V
0 MU I_1 Disabled
Enabled Disabled Measurement I
0 MU1P_1 Disabled
Enabled Enabled Measurement 1ph ase 1.packet
0 MU1P_2 Disabled
Enabled Disabled Measurement 1phase 2.packet
0 MU1P_3 Disabled
Enabled Disabled Measurement 1phase 3.packet
0 MU3P_1 Disabled
Enabled Enabled Measurement 3ph ase 1.packet
0 MUAron_1 Disabled
Enabled Disabled Measurement Aron 1.packet
0 Synchronizing 1 Disabled
Enabled Disabled Synchronizing Function 1
0 Synchronizing 2 Disabled
Enabled Disabled Synchronizing Function 2
0 Synchronizing 3 Disabled
Enabled Disabled Synchronizing Function 3
0 Synchronizing 4 Disabled
Enabled Disabled Synchronizing Function 4
0 Synchronizing 5 Disabled
Enabled Disabled Synchronizing Function 5
0 Synchronizing 6 Disabled
Enabled Disabled Synchronizing Function 6
0 Synchronizing 7 Disabled
Enabled Disabled Synchronizing Function 7
0 Synchronizing 8 Disabled
Enabled Disabled Synchronizing Function 8
103 Grp Chge OPTION Disabled
Enabled Disabled Setting Group Change Option
110 Trip 1pole 3pole only
1-/3pole 3pole only 1pole trip permitted
133 Auto Reclose 1 AR-cycle
2 AR-cycles
3 AR-cycles
4 AR-cycles
5 AR-cycles
6 AR-cycles
7 AR-cycles
8 AR-cycles
ADT
Disabled
Disabled Auto-Reclose Function
134 AR control mode Pickup w/ Tact
Pickup w/o Tact
Trip w/ Tact
Trip w/o Tact
Trip w/ Tact AR control mode
139 BREAKER FAILURE Disabled
Enabled Disabled Breaker Failure Protection
Appendix
A.6 Functional Scope
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
320
190 MEASUREMENT BOX Disabled
Port C
Port D
Port E
Disabled Measurement box
191 MB CONNECTION 6 RTD simplex
6 RTD HDX
12 RTD HDX
8 MBS simplex
8 MBS HalfDplx
16 MBS HalfDplx
6 RTD simplex Measurement box Connection
Type
Addr. Parameter Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 321
A.7 Settings
Addresses which have an appended "A" can only be changed with DIGSI, under Additional Settings.
Addr. Parameter Function Setting Options Default Setting Comments
0 SecV oltgNomVal MU U_1 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nomina l Value
0 SecCurrNomVal MU I_1 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal Value
0 SecV oltgNomVal MU1P_1 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
0 SecCurrNomVal MU1P_1 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal Value
0 SecV oltgNomVal MU1P_2 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
0 SecCurrNomVal MU1P_2 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal Value
0 SecV oltgNomVal MU1P_3 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
0 SecCurrNomVal MU1P_3 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal Value
0 SecV oltgNomVal MU3P_1 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
0 SecCurrNomVal MU3P_1 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal Value
0 SecV oltgNomVal MUAron_1 0.00 .. 200.00 V; < > 0 100.00 V Secondary Voltage Nominal Value
0 SecCurrNomVal MUAron_1 0.00 .. 5.00 A; < > 0 1.00 A Secondary Current Nominal Value
0 T-CB close SYNC function 1 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
0 T-SYN. DURATION SYNC function 1 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 1 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 1 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 1 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 1 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α Tr. U1-U2 SYNC function 1 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 1 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 1 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 1 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 1 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 1 1 .. 60 V 5 V Voltage Tre shold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 1 YES
NO NO Synchronize to U1> and U2<
0 Sync.U1<U2> SYNC function 1 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 1 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 1 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn -
chronous
0 fdiff SYNC function 1 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 1 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 1 0.5 .. 50.0 V 2.0 V Maximum voltage differne ce, asyn-
chronous
0 f SYNCHRON SYNC function 1 10 .. 100 mHz 10 mHz Frequency dif f. treshold
Sync/Async.
0 T SYNCHRON SYNC function 1 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fdiff dt syn SYNC function 1 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fdiff dt asyn SYNC function 1 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn.
0 Filter LFO SYNC function 1 NO
YES NO Filter low frequency oscillation
0 f Deviation SYNC function 1 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
0 T-CB close SYNC function 2 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
322
0 T-SYN . DURATION SYNC function 2 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 2 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 2 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 2 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 2 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α T r. U1-U2 SYNC function 2 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 2 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 2 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 2 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 2 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 2 1 .. 60 V 5 V Voltage Treshold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 2 YES
NO NO Synchronize to U1> and U2<
0 Sync.U1<U2> SYNC function 2 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 2 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 2 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn-
chronous
0 fdiff SYNC function 2 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 2 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 2 0.5 .. 50.0 V 2.0 V Maximum voltage dif fernece, asyn-
chronous
0 f SYNCHRON SYNC function 2 10 .. 100 mHz 10 mHz Frequency diff. treshold
Sync/Async.
0 T SYNCHRON SYNC function 2 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fd iff dt syn SYNC fun ctio n 2 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fd iff dt asyn SY NC fun ctio n 2 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn .
0 Filter LFO SYNC function 2 NO
YES NO Filter low frequency oscillat i on
0 f Deviation SYNC function 2 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
0 T-CB close SYNC function 3 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
0 T-SYN . DURATION SYNC function 3 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 3 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 3 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 3 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 3 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α T r. U1-U2 SYNC function 3 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 3 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 3 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 3 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 3 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 3 1 .. 60 V 5 V Voltage Treshold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 3 YES
NO NO Synchronize to U1> and U2<
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 323
0 Sync.U1<U2> SYNC function 3 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 3 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 3 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn -
chronous
0 fdiff SYNC function 3 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 3 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 3 0.5 .. 50.0 V 2.0 V Maximum voltage differne ce, asyn-
chronous
0 f SYNCHRON SYNC function 3 10 .. 100 mHz 10 mHz Frequency dif f. treshold
Sync/Async.
0 T SYNCHRON SYNC function 3 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fdiff dt syn SYNC function 3 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fdiff dt asyn SYNC function 3 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn.
0 Filter LFO SYNC function 3 NO
YES NO Filter low frequency oscillation
0 f Deviation SYNC function 3 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
0 T-CB close SYNC function 4 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
0 T-SYN. DURATION SYNC function 4 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 4 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 4 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 4 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 4 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α Tr. U1-U2 SYNC function 4 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 4 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 4 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 4 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 4 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 4 1 .. 60 V 5 V Voltage Tre shold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 4 YES
NO NO Synchronize to U1> and U2<
0 Sync.U1<U2> SYNC function 4 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 4 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 4 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn -
chronous
0 fdiff SYNC function 4 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 4 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 4 0.5 .. 50.0 V 2.0 V Maximum voltage differne ce, asyn-
chronous
0 f SYNCHRON SYNC function 4 10 .. 100 mHz 10 mHz Frequency dif f. treshold
Sync/Async.
0 T SYNCHRON SYNC function 4 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fdiff dt syn SYNC function 4 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fdiff dt asyn SYNC function 4 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn.
0 Filter LFO SYNC function 4 NO
YES NO Filter low frequency oscillation
0 f Deviation SYNC function 4 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
324
0 T-CB close SYNC function 5 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
0 T-SYN . DURATION SYNC function 5 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 5 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 5 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 5 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 5 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α T r. U1-U2 SYNC function 5 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 5 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 5 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 5 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 5 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 5 1 .. 60 V 5 V Voltage Treshold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 5 YES
NO NO Synchronize to U1> and U2<
0 Sync.U1<U2> SYNC function 5 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 5 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 5 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn-
chronous
0 fdiff SYNC function 5 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 5 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 5 0.5 .. 50.0 V 2.0 V Maximum voltage dif fernece, asyn-
chronous
0 f SYNCHRON SYNC function 5 10 .. 100 mHz 10 mHz Frequency diff. treshold
Sync/Async.
0 T SYNCHRON SYNC function 5 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fd iff dt syn SYNC fun ctio n 5 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fd iff dt asyn SY NC fun ctio n 5 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn .
0 Filter LFO SYNC function 5 NO
YES NO Filter low frequency oscillat i on
0 f Deviation SYNC function 5 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
0 T-CB close SYNC function 6 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
0 T-SYN . DURATION SYNC function 6 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 6 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 6 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 6 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 6 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α T r. U1-U2 SYNC function 6 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 6 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 6 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 6 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 6 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 6 1 .. 60 V 5 V Voltage Treshold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 6 YES
NO NO Synchronize to U1> and U2<
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 325
0 Sync.U1<U2> SYNC function 6 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 6 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 6 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn -
chronous
0 fdiff SYNC function 6 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 6 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 6 0.5 .. 50.0 V 2.0 V Maximum voltage differne ce, asyn-
chronous
0 f SYNCHRON SYNC function 6 10 .. 100 mHz 10 mHz Frequency dif f. treshold
Sync/Async.
0 T SYNCHRON SYNC function 6 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fdiff dt syn SYNC function 6 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fdiff dt asyn SYNC function 6 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn.
0 Filter LFO SYNC function 6 NO
YES NO Filter low frequency oscillation
0 f Deviation SYNC function 6 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
0 T-CB close SYNC function 7 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
0 T-SYN. DURATION SYNC function 7 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 7 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 7 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 7 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 7 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α Tr. U1-U2 SYNC function 7 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 7 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 7 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 7 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 7 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 7 1 .. 60 V 5 V Voltage Tre shold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 7 YES
NO NO Synchronize to U1> and U2<
0 Sync.U1<U2> SYNC function 7 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 7 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 7 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn -
chronous
0 fdiff SYNC function 7 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 7 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 7 0.5 .. 50.0 V 2.0 V Maximum voltage differne ce, asyn-
chronous
0 f SYNCHRON SYNC function 7 10 .. 100 mHz 10 mHz Frequency dif f. treshold
Sync/Async.
0 T SYNCHRON SYNC function 7 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fdiff dt syn SYNC function 7 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fdiff dt asyn SYNC function 7 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn.
0 Filter LFO SYNC function 7 NO
YES NO Filter low frequency oscillation
0 f Deviation SYNC function 7 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
326
0 T-CB close SYNC function 8 0.01 .. 0.60 sec 0.06 sec Closing (operating) time of CB
0 T-SYN . DURATION SYNC function 8 1.00 .. 2400.00 sec 30.00 sec Maximum duration of synchronism-
check
0 fmin SYNC function 8 92 .. 105 % 95 % Minimum frequency
0 fmax SYNC function 8 95 .. 108 % 105 % Maximum frequency
0 SyncSD SYNC function 8 (Setting options depend
on configuration) None synchronizable switching device
0 Balancing U1/U2 SYNC function 8 0.50 .. 2.00 1.00 Balancing Factor U1/U2
0α T r. U1-U2 SYNC function 8 0 .. 360 ° 0 ° Angle adjustment U1-U2 (Trafo)
0 SecTransNomVal1 SYNC function 8 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 1
0 SecTransNomVal2 SYNC function 8 0.00 .. 170.00 V; < > 0 100.00 V Secondary Transformer Nominal
Value 2
0 Umin SYNC function 8 20 .. 125 V 90 V Minimum Voltage for Synchroniza-
tion
0 Umax SYNC function 8 20 .. 140 V 110 V Maximum Voltage for Synchroniza-
tion
0 Udead SYNC function 8 1 .. 60 V 5 V Voltage Treshold for Dead
Line/Dead Bus
0 Sync.U1>U2< SYNC function 8 YES
NO NO Synchronize to U1> and U2<
0 Sync.U1<U2> SYNC function 8 YES
NO NO Synchronize to U1< and U2>
0 Sync.U1<U2< SYNC function 8 YES
NO NO Synchronize to U1< and U2<
0 UdiffSyn SYNC function 8 0.5 .. 50.0 V 2.0 V Maximum voltage difference, syn-
chronous
0 fdiff SYNC function 8 0.00 .. 2.00 Hz 0.10 Hz Maximum frequency difference,
syn.
0αdiff SYNC function 8 2 .. 90 ° 10 ° Maximum angle difference, syn.
0 UdiffAsyn SYNC function 8 0.5 .. 50.0 V 2.0 V Maximum voltage dif fernece, asyn-
chronous
0 f SYNCHRON SYNC function 8 10 .. 100 mHz 10 mHz Frequency diff. treshold
Sync/Async.
0 T SYNCHRON SYNC function 8 0.00 .. 60.00 sec 0.05 sec Switch Delay for synchronous
systems
0 d fd iff dt syn SYNC fun ctio n 8 10 .. 25 mHz/s; ∞∞mHz/s Maximum difference df/dt syn.
0 d fd iff dt asyn SY NC fun ctio n 8 50 .. 500 mHz/s; ∞∞mHz/s Maximum difference df/dt asyn .
0 Filter LFO SYNC function 8 NO
YES NO Filter low frequency oscillat i on
0 f Deviation SYNC function 8 0 .. 100 mHz 0 mHz f deviation low frequency oscilla-
tions
203 Unom PRIMARY P.System Data 1 1.0 .. 1200.0 kV 110.0 kV Rated Primary Voltage
204 Unom SECONDARY P.System Data 1 80 .. 125 V 100 V Rated Secondary Voltage (Ph-Ph)
205 CT PRIMARY P.System Data 1 10 .. 5000 A 100 A CT Rated Primary Current
206 CT SECONDARY P.System Data 1 1A
5A 1A CT Rated Secondary Current
214 Rated Frequency P.System Data 1 50 Hz
60 Hz 50 Hz Rated Frequency
240 TMin TRIP CMD P.System Data 1 0.02 .. 30.00 sec 0.10 sec Minimum TRIP Command Duration
241 TMax CLOSE CMD P.System Data 1 0.01 .. 30.00 sec 0.10 sec Maximum Close Command Dura-
tion
276 TEMP. UNIT P.System Data 1 Celsius
Fahrenheit Celsius Unit of temperature measurement
302 CHANGE Change Group Group A
Group B
Group C
Group D
Binary Input
Protocol
Group A Change to Another Setting Group
401 T Backlight on Device, General 1 .. 60 min 10 min Time Backlight on
402 DIGSI backplane Device, General Disabled
Port C
Port D
Disabled Serviceport for DIGSI
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 327
407 FltDisp.LED/LCD Device, General Target on PU
Target on TRIP Target on PU Fault Display on LED / LCD
408 Spont. FltDisp. Device, General NO
YES NO Spontaneous display of flt.annunci-
ations
901 WAVEFORMTRIGGER Osc. Fault Rec. Save w. Pickup
Save w. TRIP
Start w. TRIP
Save w. Pickup Waveform Capture
902 WAVEFORM DATA Osc. Fault Rec. Fault event
Pow.Sys.Flt. Fault event Scope of Wavefo rm Data
903 MAX. LENGTH Osc. Fault Rec. 0.30 .. 5.00 sec 2.00 sec Max. length of a Waveform Capture
Record
904 PRE. TRIG. TIME Osc. Fault Rec. 0.05 .. 0.50 sec 0.25 sec Captured Waveform Prior to Trigger
905 POST REC. TIME Osc. Fault Rec. 0.05 .. 0.50 sec 0.10 sec Captured Wavefor m after Event
906 BinIn CAPT.TIME Osc. Fault Rec. 0.10 .. 5.00 sec; ∞0.50 sec Capture Time via Binary Input
1130A PoleOpenCurrent P.System Data 2 0.05 .. 1.00 A 0.10 A Pole Open Current Threshold
1135 Reset Trip CMD P.System Data 2 CurrentOpenPole
Current AND CB CurrentOpenPole RESET of Trip Command
1150A SI Time Man.Cl P.System Data 2 0.01 .. 30.00 sec 0.30 sec Seal-in Time after MANUAL clo-
sures
2915 V-Supervision Measurem.Superv w/ CURR.SUP
w/ I> & CBaux
OFF
w/ CURR.SUP V oltage Failure Supervision
2916A T V-Supervision Measurem.Superv 0.00 .. 30.00 sec 3.00 sec Delay Voltage Failure Supervision
2917 U<max (3ph) Measurem.Superv 2 .. 100 V 5 V Maximum Voltage Thresho l d U<
(3phase)
3401 AUTO RECLOSE Auto Reclose OFF
ON OFF Auto-Reclose Function
3402 CB? 1.TRIP Auto Reclose YES
NO NO CB ready interrogation at 1st trip
3403 TIME RESTRAINT Auto Reclose 0.50 .. 300.00 sec 3.00 sec Auto Reclosing reset time
3404 T-BLOCK MC Auto Reclose 0.50 .. 300.00 sec; 0 1.00 sec AR blocking duration after manual
close
3406 EV. FLT. RECOG. Auto Reclose with PICKUP
with TRIP with TRIP Evolving fault recognition
3407 EV. FLT. MODE Auto Reclose blocks AR
starts 3p AR
is ignored
start s 3p AR Evolving fault (during the de ad time)
3408 T-Start MONITOR Auto Reclose 0.01 .. 300.00 sec 0.20 sec AR st art-signal monitoring ti me
3409 CB TIME OUT Auto Reclose 0.01 .. 300.00 sec 3.00 sec Circuit Breaker (CB) Supervision
Time
3410 T RemoteClose Auto Reclose 0.00 .. 300.00 sec; ∞∞sec Send delay for remote close
command
3411A T-DEAD EXT. Auto Reclose 0.50 .. 300.00 sec; ∞10.00 sec Maximum dead time extension
3413 Cmd.via control Auto Reclose (Setting options depend
on configuration) None C l os e co m m a nd vi a co nt r ol de vi ce
3414 Internal SYNC Auto Reclose (Setting options depend
on configuration) None Internal synchronisation
3420 AR w/ DIST. Auto Reclose YES
NO YES AR with Distance Protection
3421 AR w/ SOTF-O/C Auto Reclose YES
NO YES AR with switch-onto-fault overcur-
rent
3422 AR w/ W/I Auto Reclose YES
NO YES AR with weak infeed tripping
3423 AR w/ EF-O/C Auto Reclose YES
NO YES AR with earth fault overcurrent prot.
3424 AR w/ DTT Auto Reclose YES
NO YES AR with direct transfer trip
3425 AR w/ BackUpO/C Auto Reclose YES
NO YES AR with back-up overcurrent
3430 AR TRIP 3pole Auto Reclose
Auto Reclose YES
NO YES 3pole TRIP by AR
3431 DLC / RDT Auto Reclose WITHOUT
RDT
DLC
WITHOUT Dead Line Check / Reduced Dead
Time
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
328
3432 ADT Op. mode Auto Reclose w/ VoltageCheck
w/ RemoteClose w/ VoltageCheck Operating mode for Adapt ive Dead
Time
3433 T-ACTION ADT Auto Reclose 0.01 .. 300.00 sec; ∞0.20 sec Action time
3434 T-MAX ADT Auto Reclose 0.50 .. 3000.00 sec 5.00 sec Maximum dead time
3435 ADT 1p allowed Auto Reclose YES
NO NO 1pole TRIP allowed
3436 ADT CB? CLOSE Auto Reclose YES
NO NO CB ready interrogation before re-
closing
3437 ADT SynRequest Auto Reclose YES
NO NO Request for synchro-check after
3pole AR
3438 T U-stable Auto Reclose
Auto Reclose 0.10 .. 30.00 sec 0.10 sec Supervision time for dead/live
voltage
3440 U-live> Auto Reclose
Auto Reclose 30 .. 90 V 48 V Voltage threshold for live line or bus
3441 U-dead< Auto Reclose
Auto Reclose 2 .. 70 V 30 V Voltage threshold for dead line or
bus
3450 1.AR: START Auto Reclose YES
NO YES Start of AR allowed in this cycle
3451 1.AR: T-ACTION Auto Reclose 0.01 .. 300.00 sec; ∞0.20 sec Action Time
3453 1.AR Tdead 1Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 1phase faults
3454 1.AR Tdead 2Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 2phase faults
3455 1.AR Tdead 3Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞0.50 sec Dead time after 3phase faults
3456 1.AR Tdead1Trip Auto Reclose 0.01 .. 1800.00 sec; ∞1 .20 sec Dead time after 1pole trip
3457 1.AR Tdead3Trip Auto Reclose 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3pole trip
3458 1.AR: Tdead EV. Auto Reclose 0.01 .. 1800.00 sec 1.20 sec Dead time after evolving fault
3459 1.AR: CB? CLOSE Auto Reclose YES
NO NO CB ready interrogation before re-
closing
3460 1.AR SynRequest Auto Reclose Y ES
NO NO Request for synchro-check after
3pole AR
3461 2.AR: START Auto Reclose YES
NO NO AR start allowed in this cycle
3462 2.AR: T-ACTION Auto Reclose 0.01 .. 300.00 sec; ∞0.20 sec Action time
3464 2.AR Tdead 1Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 1phase faults
3465 2.AR Tdead 2Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 2phase faults
3466 2.AR Tdead 3Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞0.50 sec Dead time after 3phase faults
3467 2.AR Tdead1Trip Auto Reclose 0.01 .. 1800.00 sec; ∞∞sec Dead time after 1pole trip
3468 2.AR Tdead3Trip Auto Reclose 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3pole trip
3469 2.AR: Tdead EV. Auto Reclose 0.01 .. 1800.00 sec 1.20 sec Dead time after evolving fault
3470 2.AR: CB? CLOSE Auto Reclose YES
NO NO CB ready interrogation before re-
closing
3471 2.AR SynRequest Auto Reclose Y ES
NO NO Request for synchro-check after
3pole AR
3472 3.AR: START Auto Reclose YES
NO NO AR start allowed in this cycle
3473 3.AR: T-ACTION Auto Reclose 0.01 .. 300.00 sec; ∞0.20 sec Action time
3475 3.AR Tdead 1Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 1phase faults
3476 3.AR Tdead 2Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 2phase faults
3477 3.AR Tdead 3Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞0.50 sec Dead time after 3phase faults
3478 3.AR Tdead1Trip Auto Reclose 0.01 .. 1800.00 sec; ∞∞sec Dead time after 1pole trip
3479 3.AR Tdead3Trip Auto Reclose 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3pole trip
3480 3.AR: Tdead EV. Auto Reclose 0.01 .. 1800.00 sec 1.20 sec Dead time after evolving fault
3481 3.AR: CB? CLOSE Auto Reclose YES
NO NO CB ready interrogation before re-
closing
3482 3.AR SynRequest Auto Reclose Y ES
NO NO Request for synchro-check after
3pole AR
3483 4.AR: START Auto Reclose YES
NO NO AR start allowed in this cycle
3484 4.AR: T-ACTION Auto Reclose 0.01 .. 300.00 sec; ∞0.20 sec Action time
3486 4.AR Tdead 1Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 1phase faults
3487 4.AR Tdead 2Flt Auto Reclose 0.01 .. 180 0.00 sec; ∞1.20 sec Dead time after 2phase faults
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 329
3488 4.AR Tdead 3Flt Auto Reclose 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3phase faults
3489 4.AR Tdead1Trip Auto Reclose 0.01 .. 1800.00 sec; ∞∞sec Dead time after 1pole trip
3490 4.AR Tdead3Trip Auto Reclose 0.01 .. 1800.00 sec; ∞0.50 sec Dead time after 3pole trip
3491 4.AR: Tdead EV. Auto Reclose 0.01 .. 1800.00 sec 1.20 sec Dead time after evo l ving fault
3492 4.AR: CB? CLOSE Auto Reclose YES
NO NO CB ready interrogation before re-
closing
3493 4.AR SynRequest Auto Reclose YES
NO NO Request for synchro-check after
3pole AR
3901 FCT BreakerFail Breaker Failure ON
OFF OFF Breaker Failure Protection is
3902 I> BF Breaker Failure 0.05 .. 1.20 A 0.10 A Pick-up threshold I>
3903 1p-RETRIP (T1) Breaker Failure NO
YES YES 1pole retrip with stag e T1 (local trip)
3904 T1-1pole Breaker Failure 0.00 .. 30.00 sec; ∞0.00 sec T1, Delay af ter 1pole start (local trip)
3905 T1-3pole Breaker Failure 0.00 .. 30.00 sec; ∞0.00 sec T1, Delay af ter 3pole start (local trip)
3906 T2 Breaker Failure 0.00 .. 30.00 sec; ∞0.15 sec T2, Delay of 2nd stage (busbar trip)
3907 T3-BkrDefective Breaker Failure 0.00 .. 30.00 sec; ∞0.00 sec T3, Delay for st art with defective bkr .
3908 Trip BkrDefect. Breaker Failure NO
with T1-trip
with T2-trip
w/ T1/T2-trip
NO T r ip output selection with defective
bkr
3909 Chk BRK CONTACT Breaker Failure NO
YES YES Check Breaker contacts
3911 Plausib. check Breaker Failure YES
NO YES plausibility check transformer
masking
3912 3I0> BF Breaker Failure 0.05 .. 1.20 A 0.10 A Pick-up threshold 3I0>
3921 End Flt. stage Breaker Failure ON
OFF OFF End fault stage is
3922 T-EndFault Breaker Failure 0.00 .. 30.00 sec; ∞2.00 sec Trip delay of end fault stage
3931 PoleDiscrepancy Breaker Failure ON
OFF OFF Pole Discrepancy supervision
3932 T-PoleDiscrep. Breaker Failure 0.00 .. 30.00 sec; ∞2.00 sec Trip delay with pole discrepancy
3940 FO Protection Breaker Failure ON
OFF OFF Flash Over Protection
9011A RTD 1 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 1: Type
9011A MBS1 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS1: Type
9012A RTD 1 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 1: Location
9012A MBS1 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS1: Location
9013 RTD 1 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C R TD 1: Temperature S tage 1 Pickup
9014 RTD 1 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 1: Temperature S tage 1 Pickup
9015 RTD 1 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C R TD 1: Temperature St age 2 Pickup
9016 RTD 1 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 1: Temperature S tage 2 Pickup
9017 MBS1 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 1 st age 1
pickup
9018 MBS1 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 1 st age 2
pickup
9021A RTD 2 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 2: Type
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
330
9021A MBS2 TYPE MeasurementBo x Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS2: Type
9022A RTD 2 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 2: Location
9022A MBS2 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS2: Location
9023 RTD 2 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD 2: Temperature S t age 1 Picku p
9024 RTD 2 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 2: Temperature Stage 1 Picku p
9025 RTD 2 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD 2: Temperature S t age 2 Picku p
9026 RTD 2 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 2: Temperature Stage 2 Picku p
9027 MBS2 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 2 stage 1
pickup
9028 MBS2 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 2 stage 2
pickup
9031A RTD 3 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 3: Type
9031A MBS3 TYPE MeasurementBo x Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS3: Type
9032A RTD 3 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 3: Location
9032A MBS3 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS3: Location
9033 RTD 3 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD 3: Temperature S t age 1 Picku p
9034 RTD 3 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 3: Temperature Stage 1 Picku p
9035 RTD 3 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD 3: Temperature S t age 2 Picku p
9036 RTD 3 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 3: Temperature Stage 2 Picku p
9037 MBS3 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 3 stage 1
pickup
9038 MBS3 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 3 stage 2
pickup
9041A RTD 4 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 4: Type
9041A MBS4 TYPE MeasurementBo x Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS4: Type
9042A RTD 4 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 4: Location
9042A MBS4 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS4: Location
9043 RTD 4 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD 4: Temperature S t age 1 Picku p
9044 RTD 4 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 4: Temperature Stage 1 Picku p
9045 RTD 4 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD 4: Temperature S t age 2 Picku p
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 331
9046 RTD 4 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 4: Temperature S tage 2 Pickup
9047 MBS4 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 4 st age 1
pickup
9048 MBS4 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 4 st age 2
pickup
9051A RTD 5 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 5: Type
9051A MBS5 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS5: Type
9052A RTD 5 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 5: Location
9052A MBS5 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS5: Location
9053 RTD 5 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C R TD 5: Temperature S tage 1 Pickup
9054 RTD 5 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 5: Temperature S tage 1 Pickup
9055 RTD 5 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C R TD 5: Temperature St age 2 Pickup
9056 RTD 5 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 5: Temperature S tage 2 Pickup
9057 MBS5 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 5 st age 1
pickup
9058 MBS5 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 5 st age 2
pickup
9061A RTD 6 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 6: Type
9061A MBS6 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS6: Type
9062A RTD 6 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 6: Location
9062A MBS6 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS6: Location
9063 RTD 6 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C R TD 6: Temperature S tage 1 Pickup
9064 RTD 6 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 6: Temperature S tage 1 Pickup
9065 RTD 6 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C R TD 6: Temperature St age 2 Pickup
9066 RTD 6 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 6: Temperature S tage 2 Pickup
9067 MBS6 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 6 st age 1
pickup
9068 MBS6 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 6 st age 2
pickup
9071A MBS7 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS7: Type
9071A RTD 7 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 7: Type
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
332
9072A MBS7 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS7: Location
9072A RTD 7 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 7: Location
9073 RTD 7 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD 7: Temperature S t age 1 Picku p
9074 RTD 7 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 7: Temperature Stage 1 Picku p
9075 RTD 7 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD 7: Temperature S t age 2 Picku p
9076 RTD 7 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 7: Temperature Stage 2 Picku p
9077 MBS7 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 7 stage 1
pickup
9078 MBS7 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 7 stage 2
pickup
9081A MBS8 TYPE MeasurementBo x Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS8: Type
9081A RTD 8 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 8: Type
9082A MBS8 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS8: Location
9082A RTD 8 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 8: Location
9083 RTD 8 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD 8: Temperature S t age 1 Picku p
9084 RTD 8 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 8: Temperature Stage 1 Picku p
9085 RTD 8 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD 8: Temperature S t age 2 Picku p
9086 RTD 8 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 8: Temperature Stage 2 Picku p
9087 MBS8 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 8 stage 1
pickup
9088 MBS8 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 8 stage 2
pickup
9091A RTD 9 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD 9: Type
9091A MBS9 TYPE MeasurementBo x Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS9: Type
9092A RTD 9 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD 9: Location
9092A MBS9 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS9: Location
9093 RTD 9 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD 9: Temperature S t age 1 Picku p
9094 RTD 9 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD 9: Temperature Stage 1 Picku p
9095 RTD 9 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD 9: Temperature S t age 2 Picku p
9096 RTD 9 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD 9: Temperature Stage 2 Picku p
9097 MBS9 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 9 stage 1
pickup
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 333
9098 MBS9 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 9 st age 2
pickup
9101A RTD10 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD10: T ype
9101A MBS10 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS10: Type
9102A RTD10 LOCATION Measurement Box Oil
Ambient
Winding
Bearing
Other
Other RTD10: Location
9102A MBS10 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS10: Location
9103 RTD10 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD10 : Temperature Stage 1
Pickup
9104 RTD10 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD10: Temperature Stage 1
Pickup
9105 RTD10 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD10: Temperature Stage 2
Pickup
9106 RTD10 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD10: Temperature Stage 2
Pickup
9107 MBS10 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 10 stage
1 pickup
9108 MBS10 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 10 stage
2 pickup
9111A RTD11 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD11: Typ e
9111A MBS11 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS11: Type
9112A RTD11 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD11: Location
9112A MBS11 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS11: Location
9113 RTD11 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD11: Temperature Stage 1
Pickup
9114 RTD11 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD11: Temperature Stage 1
Pickup
9115 RTD11 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD11: Temperature Stage 2
Pickup
9116 RTD11 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD11: Temperature Stage 2
Pickup
9117 MBS11 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 11 stage
1 pickup
9118 MBS11 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 11 stage
2 pickup
9121A RTD12 TYPE MeasurementBox Not connected
Pt 100 Ω
Ni 120 Ω
Ni 100 Ω
Pt 100 ΩRTD12: T ype
9121A MBS12 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS12: Type
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
334
9122A RTD12 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other RTD12: Location
9122A MBS12 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS12: Location
9123 RTD12 STAGE 1 MeasurementBox -50 .. 250 °C; ∞100 °C RTD12: Temperature Stage 1
Pickup
9124 RTD12 STAGE 1 MeasurementBox -58 .. 482 °F; ∞212 °F RTD12: Temperature Stage 1
Pickup
9125 RTD12 STAGE 2 MeasurementBox -50 .. 250 °C; ∞120 °C RTD12: Temperature Stage 2
Pickup
9126 RTD12 STAGE 2 MeasurementBox -58 .. 482 °F; ∞248 °F RTD12: Temperature Stage 2
Pickup
9127 MBS12 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 12 stage
1 pickup
9128 MBS12 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 12 stage
2 pickup
9131A MBS13 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS13: Type
9132A MBS13 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS13: Location
9137 MBS13 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 13 stage
1 pickup
9138 MBS13 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 13 stage
2 pickup
9141A MBS14 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS14: Type
9142A MBS14 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS14: Location
9147 MBS14 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 14 stage
1 pickup
9148 MBS14 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 14 stage
2 pickup
9151A MBS15 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS15: Type
9152A MBS15 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS15: Location
9157 MBS15 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 15 stage
1 pickup
9158 MBS15 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 15 stage
2 pickup
9161A MBS16 TYPE MeasurementBox Not connected
Set in MB
Ni 120 Ω
Ni 100 Ω
Set in MB MBS16: Type
9162A MBS16 LOCATION MeasurementBox Oil
Ambient
Winding
Bearing
Other
Other MBS16: Location
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.7 Settings
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 335
9167 MBS16 Stage 1 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 16 stage
1 pickup
9168 MBS16 Stage 2 MeasurementBox -1999.000 .. 9999.000 ; ∞∞ Measurement box sensor 16 stage
2 pickup
Addr. Parameter Function Setting Options Default Setting Comments
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
336
A.8 Information List
Indications for IEC 60 870-5-103 are always reported ON / OFF if they are subject to general interrogation for
IEC 60 870-5-103. If not, they are reported only as ON.
New user-defined indications or such newly allocated to IEC 60 870-5-103 are set to ON / OFF and subjected
to general interrogation if the information type is not a spontaneous event („.._Ev“). Further information on in-
dications can be found in detail in the SIPROTEC 4 System Description, Order No. E50417-H1100-C151.
In columns „Event Log“, „Trip Log“ and „Ground Fault Log“ the following applies:
UPPER CASE NOTATION “ON/OFF”: definitely set, not allocatable
lower case notation “on/off”: preset, allocatable
*: not preset, allocatable
<blank>: neither preset nor allocatable
In column „Marked in Oscill.Record“ the following applies:
UPPER CASE NOTATION “M”: definitely set, not allocatable
lower case notation “m”: preset, allocatable
*: not preset, allocatable
<blank>: neither preset nor allocatable
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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
- Disturbance CFC (Distur.CFC) Device, General OUT on
off LED BO
- Reset LED (Reset LED) Device, General IntSP on LED BO 106 19 1 No
- >Back Light on (>Light on) Device, General SP on
off LED BI BO
- Stop data transmission (DataS-
top) Device, General IntSP on
off LED BO 240 20 1 Yes
- Test mode (Test mode) Device, General IntSP on
off LED BO 106 21 1 Yes
- H ar d w a r e Test Mo de (H W Test-
Mod) Device, General IntSP on
off LED BO
- Clock Synchronization (Synch-
Clock) Device, General IntSP
_Ev * LED BO
- Error FMS FO 1 (Error FMS1) Device, General OUT on
off LED BO
- Error FMS FO 2 (Error FMS2) Device, General OUT on
off LED BO
- Setting Group A is active (P-GrpA
act) Change Group IntSP ON
OFF * * LED BO 106 23 1 Yes
- Setting Group B is active (P-GrpB
act) Change Group IntSP ON
OFF * * LED BO 106 24 1 Yes
- Setting Group C is active (P-
GrpC act) Change Group IntSP ON
OFF * * LED BO 106 25 1 Yes
- Setting Group D is active (P-
GrpD act) Change Group IntSP ON
OFF * * LED BO 106 26 1 Yes
- Fault Recording Start (FltRecSta) Osc. Fault Rec. IntSP ON
OFF * m LED BO 135 208 1 Yes
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 337
- Key Switch 1 (Local/Remote)
(KeySwitch1) Cntrl Authority DP on
off LED
- Control Authority (Cntrl Auth) Cntrl Authority IntSP ON
OFF LED 101 85 1 Yes
- Key Switch 2 (Interlocking
OFF/ON) (KeySwitch2) Cntrl Authority DP on
off LED
- Controlmode LOCAL (ModeLO-
CAL) Cntrl Authority IntSP ON
OFF LED 101 86 1 Yes
- Controlmode REMOTE (ModeR-
EMOTE) Cntrl Authority IntSP ON
OFF LED
- circuit breaker Q0 (Q0) C ontrol Device CF_D
2on
off BO 240 160 20
- circuit breaker Q0 (Q0) C ontrol Device DP on
off BI CB 240 160 1 Yes
- bus disconnector Q1 (Q1) Control Device CF_D
2on
off BO 240 161 20
- bus disconnector Q1 (Q1) Control Device DP on
off BI CB 240 161 1 Yes
- bus disconnector Q2 (Q2) Control Device CF_D
2on
off BO 240 162 20
- bus disconnector Q2 (Q2) Control Device DP on
off BI CB 240 162 1 Yes
- earthing isolator Q8 (Q8) Control Device CF_D
2on
off BO 240 164 20
- earthing isolator Q8 (Q8) Control Device DP on
off BI CB 240 164 1 Yes
- feeder disconnector Q9 (Q9) Control Device CF_D
2on
off BO 240 163 20
- feeder disconnector Q9 (Q9) Control Device DP on
off BI CB 240 163 1 Yes
- Release circuit breaker Q0
(ReleaseQ0) Control Device IntSP on
off LED BO
- Release bus disconnector Q1
(ReleaseQ1) Control Device IntSP on
off LED BO
- Release bus disconnector Q2
(ReleaseQ2) Control Device IntSP on
off LED BO
- Release earthing isolator Q8
(ReleaseQ8) Control Device IntSP on
off LED BO
- Release feeder disconnector Q9
(ReleaseQ9) Control Device IntSP on
off LED BO
- Threshold Value 1 (ThreshVal1) Thresh.-Switch IntSP on
off LED BI FC
TN BO CB
- Error Systeminterface (SysIn-
tErr.) Protocol IntSP on
off LED BO
1 No Function configured (Not con-
figured) Device, General OUT
2 Function Not Available (Non Exis-
tent) Device, General OUT
3 >Synchronize Internal Real T ime
Clock (>Time Synch) Device, General SP_E
v* LED BI FC
TN BO 135 48 1 No
4 >Trigger Waveform Capture
(>Trig.Wave.Cap.) Osc. Fault Rec. SP on * m LED BI BO 135 49 1 Yes
5 >Reset LED (>Reset LED) Device, General SP * * * LED BI BO
7 >Setting Group Select Bit 0 (>Set
Group Bit0) Change Group SP * * * LED BI BO
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
338
8 >Setting Group Select Bit 1 (>Set
Group Bit1) Change Group SP * * * LED BI BO
009.0100 Failure EN100 Modul (Failure
Modul) EN100-Modul 1 IntSP on
off * LED BO
009.0101 Failure EN100 Link Channel 1
(Ch1) (Fail Ch1) EN100-Modul 1 IntSP on
off * LED BO
009.0102 Failure EN100 Link Channel 2
(Ch2) (Fail Ch2) EN100-Modul 1 IntSP on
off * LED BO
15 >Test mode (>Test mode) Device, General SP * * LED BI BO
16 >Stop data transmission
(>DataStop) Device, General SP * * LED BI BO 135 54 1 Yes
51 Device is Operational and Pro-
tecting (Device OK) Device, General OUT on
off LED BO 135 81 1 Yes
52 At Least 1 Protecti on Funct. is
Active (ProtActive) Device, General IntSP on
off LED BO 106 18 1 Yes
55 Reset Device (Reset Device) Device, General OUT on LED BO
56 Initial Start of Device (Initial Start) Device, General OUT on LED BO 106 5 1 No
67 Resume (Resume) Device, General OUT on LED BO
68 Clock Synchronization Error
(Clock SyncError) Device, General IntSP on
off LED BO
69 Daylight Saving Time (DayLight-
SavTime) Device, General OUT on
off LED BO
70 Setting calculation is running
(Settings Calc.) Device, General OUT on
off LED BO 106 22 1 Yes
71 Settings Check (Settings Check) Device, General OUT * LED BO
72 Level-2 change (Level-2 change) Device, General OUT on
off LED BO
73 Local setting change (Local
change) Device, General OUT * LED BO
110 Event lost (Event Lost) Device, General OUT_
Ev * * LED BO 135 130 1 No
113 Flag Lost (Flag Lost) Device, General OUT
125 Chatter ON (Chatter ON) Device, General OUT on
off LED BO 135 145 1 Yes
126 Pr otection ON/OFF (via system
port) (ProtON/OFF) Device, General IntSP ON
OFF **LEDBO
127 Auto Reclose ON/OFF (via
system port) (AR ON/OFF) Device, General IntSP ON
OFF **LEDBO
140 E rror with a summary alarm
(Error Sum Alarm) Device, General OUT ON
OFF * LED BO
147 Error Power Supply (Error Pwr-
Supply) Device, General OUT on
off LED BO
168 Failure: Voltage absent (Fail U
absent) Measurem.Superv OUT ON
OFF * * LED BO 135 187 1 Yes
170.0001 >Sync1 effective (>Sy1 eff.) SYNC function 1 SP on
off LED BI BO
170.0001 >Sync2 effective (>Sy2 eff.) SYNC function 2 SP on
off LED BI BO
170.0001 >Sync3 effective (>Sy3 eff.) SYNC function 3 SP on
off LED BI BO
170.0001 >Sync4 effective (>Sy4 eff.) SYNC function 4 SP on
off LED BI BO
170.0001 >Sync5 effective (>Sy5 eff.) SYNC function 5 SP on
off LED BI BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 339
170.0001 >Sync6 effective (>Sy6 eff.) SYNC function 6 SP on
off LED BI BO
170.0001 >Sync7 effective (>Sy7 eff.) SYNC function 7 SP on
off LED BI BO
170.0001 >Sync8 effective (>Sy8 eff.) SYNC function 8 SP on
off LED BI BO
170.0041 >Sync1 block (>Sy1 block) SYNC function 1 SP on
off LED BI BO
170.0041 >Sync2 block (>Sy2 block) SYNC function 2 SP on
off LED BI BO
170.0041 >Sync3 block (>Sy3 block) SYNC function 3 SP on
off LED BI BO
170.0041 >Sync4 block (>Sy4 block) SYNC function 4 SP on
off LED BI BO
170.0041 >Sync5 block (>Sy5 block) SYNC function 5 SP on
off LED BI BO
170.0041 >Sync6 block (>Sy6 block) SYNC function 6 SP on
off LED BI BO
170.0041 >Sync7 block (>Sy7 block) SYNC function 7 SP on
off LED BI BO
170.0041 >Sync8 block (>Sy8 block) SYNC function 8 SP on
off LED BI BO
170.0042 >Sync1 direct Command Output
(>Sy1 dirCO) SYNC function 1 SP on
off LED BI BO
170.0042 >Sync2 direct Command Output
(>Sy2 dirCO) SYNC function 2 SP on
off LED BI BO
170.0042 >Sync3 direct Command Output
(>Sy3 dirCO) SYNC function 3 SP on
off LED BI BO
170.0042 >Sync4 direct Command Output
(>Sy4 dirCO) SYNC function 4 SP on
off LED BI BO
170.0042 >Sync5 direct Command Output
(>Sy5 dirCO) SYNC function 5 SP on
off LED BI BO
170.0042 >Sync6 direct Command Output
(>Sy6 dirCO) SYNC function 6 SP on
off LED BI BO
170.0042 >Sync7 direct Command Output
(>Sy7 dirCO) SYNC function 7 SP on
off LED BI BO
170.0042 >Sync8 direct Command Output
(>Sy8 dirCO) SYNC function 8 SP on
off LED BI BO
170.0043 >Sync1 Measuement only (>Sy1
Meas) SYNC function 1 SP on
off LED BI BO
170.0043 >Sync2 Measurement only (>Sy2
Meas) SYNC function 2 SP on
off LED BI BO
170.0043 >Sync3 Measurement only (>Sy3
Meas) SYNC function 3 SP on
off LED BI BO
170.0043 >Sync4 Measurement only (>Sy4
Meas) SYNC function 4 SP on
off LED BI BO
170.0043 >Sync5 Measurement Only
(>Sy5 Meas) SYNC function 5 SP on
off LED BI BO
170.0043 >Sync6 Measurement only (>Sy6
Meas) SYNC function 6 SP on
off LED BI BO
170.0043 >Sync7 Measurement only (>Sy7
Meas) SYNC function 7 SP on
off LED BI BO
170.0043 >Sync8 Measurement only (>Sy8
Meas) SYNC function 8 SP on
off LED BI BO
170.0044 >Sync1 switch to U1> and U2<
(>Sy1U1>U2<) SYNC function 1 SP on
off LED BI BO
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
340
170.0044 >Sync2 switch to U1> and U2<
(>Sy2U1>U2<) SYNC function 2 SP on
off LED BI BO
170.0044 >Sync3 switch to U1> and U2<
(>Sy3U1>U2<) SYNC function 3 SP on
off LED BI BO
170.0044 >Sync4 switch to U1> and U2<
(>Sy4U1>U2<) SYNC function 4 SP on
off LED BI BO
170.0044 >Sync5 switch to U1> and U2<
(>Sy5U1>U2<) SYNC function 5 SP on
off LED BI BO
170.0044 >Sync6 switch to U1> and U2<
(>Sy6U1>U2<) SYNC function 6 SP on
off LED BI BO
170.0044 >Sync7 switch to U1> and U2<
(>Sy7U1>U2<) SYNC function 7 SP on
off LED BI BO
170.0044 >Sync8 switch to U1> and U2<
(>Sy8U1>U2<) SYNC function 8 SP on
off LED BI BO
170.0045 >Sync1 switch to U1< and U2>
(>Sy1U1<U2>) SYNC function 1 SP on
off LED BI BO
170.0045 >Sync2 switch to U1< and U2>
(>Sy2U1<U2>) SYNC function 2 SP on
off LED BI BO
170.0045 >Sync3 switch to U1< and U2>
(>Sy3U1<U2>) SYNC function 3 SP on
off LED BI BO
170.0045 >Sync4 switch to U1< and U2>
(>Sy4U1<U2>) SYNC function 4 SP on
off LED BI BO
170.0045 >Sync5 switch to U1< and U2>
(>Sy5U1<U2>) SYNC function 5 SP on
off LED BI BO
170.0045 >Sync6 switch to U1< and U2>
(>Sy6U1<U2>) SYNC function 6 SP on
off LED BI BO
170.0045 >Sync7 switch to U1< and U2>
(>Sy7U1<U2>) SYNC function 7 SP on
off LED BI BO
170.0045 >Sync8 switch to U1< and U2>
(>Sy8U1<U2>) SYNC function 8 SP on
off LED BI BO
170.0046 >Sync1 switch to U1< and U2<
(>Sy1U1<U2<) SYNC function 1 SP on
off LED BI BO
170.0046 >Sync2 switch to U1< and U2<
(>Sy2U1<U2<) SYNC function 2 SP on
off LED BI BO
170.0046 >Sync3 switch to U1< and U2<
(>Sy3U1<U2<) SYNC function 3 SP on
off LED BI BO
170.0046 >Sync4 switch to U1< and U2<
(>Sy4U1<U2<) SYNC function 4 SP on
off LED BI BO
170.0046 >Sync5 switch to U1< and U2<
(>Sy5U1<U2<) SYNC function 5 SP on
off LED BI BO
170.0046 >Sync6 switch to U1< and U2<
(>Sy6U1<U2<) SYNC function 6 SP on
off LED BI BO
170.0046 >Sync7 switch to U1< and U2<
(>Sy7U1<U2<) SYNC function 7 SP on
off LED BI BO
170.0046 >Sync8 switch to U1< and U2<
(>Sy8U1<U2<) SYNC function 8 SP on
off LED BI BO
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 1 OUT on
off LED BO 41 201 1 Yes
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 2 OUT on
off LED BO
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 3 OUT on
off LED BO
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 4 OUT on
off LED BO
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 5 OUT on
off LED BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 341
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 6 OUT on
off LED BO
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 7 OUT on
off LED BO
170.0049 Sync. Release of CLOSE
Command (Sync. CloseRel) SYNC function 8 OUT on
off LED BO
170.0050 Synchronization Error (Sync.
Error) SYNC function 1 OUT on
off LED BO 41 202 1 Yes
170.0050 Synchronization Error (Sync.
Error) SYNC function 2 OUT on
off LED BO
170.0050 Synchronization Error (Sync.
Error) SYNC function 3 OUT on
off LED BO
170.0050 Synchronization Error (Sync.
Error) SYNC function 4 OUT on
off LED BO
170.0050 Synchronization Error (Sync.
Error) SYNC function 5 OUT on
off LED BO
170.0050 Synchronization Error (Sync.
Error) SYNC function 6 OUT on
off LED BO
170.0050 Synchronization Error (Sync.
Error) SYNC function 7 OUT on
off LED BO
170.0050 Synchronization Error (Sync.
Error) SYNC function 8 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 1 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 2 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 3 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 4 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 5 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 6 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 7 OUT on
off LED BO
170.0051 Sync. blocked (Sync. block) SYNC function 8 OUT on
off LED BO
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 1 OUT on
off LED BO 41 205 1 Yes
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 2 OUT on
off LED BO
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 3 OUT on
off LED BO
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 4 OUT on
off LED BO
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 5 OUT on
off LED BO
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 6 OUT on
off LED BO
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 7 OUT on
off LED BO
170.0052 Sync. Monitoring T ime exceeded
(Sync.MonTimeExc) SYNC function 8 OUT on
off LED BO
170.0053 Sync. Synchron (Sync. synchron) SYNC function 1 OUT on
off LED BO 41 206 1 Yes
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
342
170.0053 Sync. Synchron (Sync. synchron) SY NC function 2 OUT on
off LED BO
170.0053 Sync. Synchron (Sync. synchron) SY NC function 3 OUT on
off LED BO
170.0053 Sync. Synchron (Sync. synchron) SY NC function 4 OUT on
off LED BO
170.0053 Sync. Synchron (Sync. synchron) SY NC function 5 OUT on
off LED BO
170.0053 Sync. Synchron (Sync. synchron) SY NC function 6 OUT on
off LED BO
170.0053 Sync. Synchron (Sync. synchron) SY NC function 7 OUT on
off LED BO
170.0053 Sync. Synchron (Sync. synchron) SY NC function 8 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 1 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 2 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 3 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 4 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 5 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 6 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 7 OUT on
off LED BO
170.0054 Sync. Condition U1> U2< fulfilled
(Sync. U1> U2<) SYNC function 8 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 1 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 2 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 3 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 4 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 5 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 6 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 7 OUT on
off LED BO
170.0055 Sync. Condition U1< U2> fulfilled
(Sync. U1< U2>) SYNC function 8 OUT on
off LED BO
170.0056 Sync. Condition U1< U2< fulfilled
(Sync. U1< U2<) SYNC function 1 OUT on
off LED BO
170.0056 Sync. Condition U1< U2< fulfilled
(Sync. U1< U2<) SYNC function 2 OUT on
off LED BO
170.0056 Sync. Condition U1< U2< fulfilled
(Sync. U1< U2<) SYNC function 3 OUT on
off LED BO
170.0056 Sync. Condition U1< U2< fulfilled
(Sync. U1< U2<) SYNC function 4 OUT on
off LED BO
170.0056 Sync. Condition U1< U2< fulfilled
(Sync. U1< U2<) SYNC function 5 OUT on
off LED BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 343
170.0056 Sync. Condition U1< U2< fulfi lled
(Sync. U1< U2<) SYNC function 6 OUT on
off LED BO
170.0056 Sync. Condition U1< U2< fulfi lled
(Sync. U1< U2<) SYNC function 7 OUT on
off LED BO
170.0056 Sync. Condition U1< U2< fulfi lled
(Sync. U1< U2<) SYNC function 8 OUT on
off LED BO
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 1 OUT on
off LED BO 41 207 1 Yes
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 2 OUT on
off LED BO
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 3 OUT on
off LED BO
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 4 OUT on
off LED BO
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 5 OUT on
off LED BO
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 6 OUT on
off LED BO
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 7 OUT on
off LED BO
170.0057 Sync. Voltage difference exceed-
ed (Sync. Vdiff>) SYNC function 8 OUT on
off LED BO
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 1 OUT on
off LED BO 41 208 1 Yes
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 2 OUT on
off LED BO
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 3 OUT on
off LED BO
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 4 OUT on
off LED BO
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 5 OUT on
off LED BO
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 6 OUT on
off LED BO
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 7 OUT on
off LED BO
170.0058 Sync. frequency difference ex-
ceeded (Sync. fdiff>) SYNC function 8 OUT on
off LED BO
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 1 OUT on
off LED BO 41 209 1 Yes
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 2 OUT on
off LED BO
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 3 OUT on
off LED BO
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 4 OUT on
off LED BO
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 5 OUT on
off LED BO
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 6 OUT on
off LED BO
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 7 OUT on
off LED BO
170.0059 Sync.angle difference exceeded
(Sync. α diff>) SYNC function 8 OUT on
off LED BO
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 1 OUT on
off LED BO
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
344
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 2 OUT on
off LED BO
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 3 OUT on
off LED BO
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 4 OUT on
off LED BO
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 5 OUT on
off LED BO
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 6 OUT on
off LED BO
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 7 OUT on
off LED BO
170.0060 Sync. frequency f1 too high
(Sync. f1>>) SYNC function 8 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 1 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 2 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 3 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 4 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 5 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 6 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 7 OUT on
off LED BO
170.0061 Sync. frequency f1 too low (Sync.
f1<<) SYNC function 8 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 1 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 2 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 3 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 4 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 5 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 6 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 7 OUT on
off LED BO
170.0062 Sync. frequency f2 too high
(Sync. f2>>) SYNC function 8 OUT on
off LED BO
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 1 OUT on
off LED BO
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 2 OUT on
off LED BO
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 3 OUT on
off LED BO
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 4 OUT on
off LED BO
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 5 OUT on
off LED BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 345
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 6 OUT on
off LED BO
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 7 OUT on
off LED BO
170.0063 Sync. frequency f2 too low (Sync.
f2<<) SYNC function 8 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 1 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 2 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 3 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 4 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 5 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 6 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 7 OUT on
off LED BO
170.0064 Sync. voltage U1 too high (Sync.
U1>>) SYNC function 8 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 1 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 2 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 3 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 4 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 5 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 6 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 7 OUT on
off LED BO
170.0065 Sync. voltage U1 too low (Sync.
U1<<) SYNC function 8 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 1 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 2 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 3 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 4 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 5 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 6 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 7 OUT on
off LED BO
170.0066 Sync. voltage U2 too high (Sync.
U2>>) SYNC function 8 OUT on
off LED BO
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 1 OUT on
off LED BO
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
346
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 2 OUT on
off LED BO
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 3 OUT on
off LED BO
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 4 OUT on
off LED BO
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 5 OUT on
off LED BO
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 6 OUT on
off LED BO
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 7 OUT on
off LED BO
170.0067 Sync. voltage U2 too low (Sync.
U2<<) SYNC function 8 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 1 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 2 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 3 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 4 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 5 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 6 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 7 OUT on
off LED BO
170.0080 Sync. volt.-diff. exceeded synch.
netw. (Sync. Udiffsyn>) SYNC function 8 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 1 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 2 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 3 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 4 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 5 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 6 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 7 OUT on
off LED BO
170.0081 Sync. volt.-diff. exceeded asynch.
netw. (Sync.Udiff asyn>) SYNC function 8 OUT on
off LED BO
170.0082 Sync. frq.-dif f. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 1 OUT on
off LED BO
170.0082 Sync. frq.-dif f. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 2 OUT on
off LED BO
170.0082 Sync. frq.-dif f. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 3 OUT on
off LED BO
170.0082 Sync. frq.-dif f. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 4 OUT on
off LED BO
170.0082 Sync. frq.-dif f. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 5 OUT on
off LED BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 347
170.0082 Sync. frq.-diff. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 6 OUT on
off LED BO
170.0082 Sync. frq.-diff. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 7 OUT on
off LED BO
170.0082 Sync. frq.-diff. exceeded synch.
netw. (Sync. fdiffsyn>) SYNC function 8 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 1 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 2 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 3 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 4 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 5 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 6 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 7 OUT on
off LED BO
170.0083 Sync. frq.-diff. exceeded asynch .
netw. (Sync.fdiffasyn>) SYNC function 8 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 1 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 2 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 3 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 4 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 5 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 6 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 7 OUT on
off LED BO
170.0084 Sync.dFdiffdtS> (Sync.dFdif-
fdtS>) SYNC function 8 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 1 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 2 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 3 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 4 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 5 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 6 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 7 OUT on
off LED BO
170.0085 Sync.dFdiffdtA> (Sync.dFdiffd-
tA>) SYNC function 8 OUT on
off LED BO
170.0086 Sync. syn (Sync. syn) SYNC function 1 OUT on
off LED BO
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
348
170.0086 Sync. syn (Sync. syn) SYNC function 2 OUT on
off LED BO
170.0086 Sync. syn (Sync. syn) SYNC function 3 OUT on
off LED BO
170.0086 Sync. syn (Sync. syn) SYNC function 4 OUT on
off LED BO
170.0086 Sync. syn (Sync. syn) SYNC function 5 OUT on
off LED BO
170.0086 Sync. syn (Sync. syn) SYNC function 6 OUT on
off LED BO
170.0086 Sync. syn (Sync. syn) SYNC function 7 OUT on
off LED BO
170.0086 Sync. syn (Sync. syn) SYNC function 8 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 1 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 2 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 3 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 4 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 5 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 6 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 7 OUT on
off LED BO
170.0087 Sync. asyn (Sync. asyn) SYNC function 8 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 1 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 2 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 3 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 4 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 5 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 6 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 7 OUT on
off LED BO
170.0091 Sync. fdiff deviation exceeded
(Sync. fDev>) SYNC function 8 OUT on
off LED BO
170.2102 >Sync1 release blocking (>Sy1
rlblk) SYNC function 1 SP on
off LED BI BO
170.2102 >Sync2 release blocking (>Sy2
rlblk) SYNC function 2 SP on
off LED BI BO
170.2102 >Sync3 release blocking (>Sy3
rlblk) SYNC function 3 SP on
off LED BI BO
170.2102 >Sync4 release blocking (>Sy4
rlblk) SYNC function 4 SP on
off LED BI BO
170.2102 >Sync5 release blocking (>Sy5
rlblk) SYNC function 5 SP on
off LED BI BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 349
170.2102 >Sync6 release blocking (>Sy6
rlblk) SYNC function 6 SP on
off LED BI BO
170.2102 >Sync7 release blocking (>Sy7
rlblk) SYNC function 7 SP on
off LED BI BO
170.2102 >Sync8 release blocking (>Sy8
rlblk) SYNC function 8 SP on
off LED BI BO
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 1 OUT on
off LED BO 41 204 1 Yes
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 2 OUT on
off LED BO
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 3 OUT on
off LED BO
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 4 OUT on
off LED BO
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 5 OUT on
off LED BO
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 6 OUT on
off LED BO
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 7 OUT on
off LED BO
170.2103 Sync. CLOSE command is
BLOCKED (Sync. CLOSE BLK) SYNC function 8 OUT on
off LED BO
177 Failure: Battery empty (Fail Bat-
tery) Device, Gene ral OUT on
off LED BO
183 Error Board 1 (Error Board 1) Device, General OUT on
off LED BO
184 Error Board 2 (Error Board 2) Device, General OUT on
off LED BO
185 Error Board 3 (Error Board 3) Device, General OUT on
off LED BO
186 Error Board 4 (Error Board 4) Device, General OUT on
off LED BO
187 Error Board 5 (Error Board 5) Device, General OUT on
off LED BO
188 Error Board 6 (Error Board 6) Device, General OUT on
off LED BO
189 Error Board 7 (Error Board 7) Device, General OUT on
off LED BO
301 Power System fault
(Pow.Sys.Flt.) Device, General OUT on
off ON
OFF * 135 231 2 Yes
302 Fault Event (Fault Event) Device, General OUT * ON * 135 232 2 Yes
320 Warn: Limit of Memory Data ex-
ceeded (Warn Mem. Data) Device, General OUT on
off **LEDBO
321 Warn: Limit of Memory Parameter
exceeded (Warn Mem. Para.) Device, General OUT on
off **LEDBO
322 Warn: Limit o f Memory Operation
exceeded (Warn Mem. Oper.) Device, General OUT on
off **LEDBO
323 Warn: Limit of Memory New ex-
ceeded (Warn Mem. New) Device, General OUT on
off **LEDBO
351 >Circuit breaker aux. contact:
Pole L1 (>CB Aux. L1) P.System Data 2 SP * * * LED BI BO 150 1 1 Yes
352 >Circuit breaker aux. contact:
Pole L2 (>CB Aux. L2) P.System Data 2 SP * * * LED BI BO 150 2 1 Yes
353 >Circuit breaker aux. contact:
Pole L3 (>CB Aux. L3) P.System Data 2 SP * * * LED BI BO 150 3 1 Yes
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
350
356 >Ma nual close signal (>Manual
Close) P.System D a ta 2 SP * * * LED BI BO 150 6 1 Yes
361 >Failure: Feeder VT (MCB
tripped) (>FAIL:Feeder VT) P.System Data 2 SP ON
OFF * * LED BI BO 150 38 1 Yes
366 >CB 1 Pole L1 (Pos. Con-
tact=Breaker) (>CB1 Pole L1) P.System Data 2 SP * * * LED BI BO 150 66 1 Yes
367 >CB 1 Pole L2 (Pos. Con-
tact=Breaker) (>CB1 Pole L2) P.System Data 2 SP * * * LED BI BO 150 67 1 Yes
368 >CB 1 Pole L3 (Pos. Con-
tact=Breaker) (>CB1 Pole L3) P.System Data 2 SP * * * LED BI BO 150 68 1 Yes
371 >Circuit Breaker 1 READY for re-
closing (>CB1 Ready) P.System Data 2 SP * * * LED BI BO 150 71 1 Yes
378 >CB faulty (>CB faulty) P.System Data 2 SP * * * LED BI B O
379 >CB aux. contact 3pole Closed
(>CB 3p Closed) P.System Data 2 SP * * * LED BI BO 150 78 1 Yes
380 >CB aux. contact 3pole Open
(>CB 3p Open) P.System Data 2 SP * * * LED BI BO 150 79 1 Yes
410 >CB 1 aux. 3p Closed (f or AR,
CB-Test) (>CB1 3p Closed) P.System Data 2 SP * * * LED BI BO 150 80 1 Yes
411 >CB1 aux. 3p Open (f or AR, CB-
Test) (>CB1 3p Open) P.System Data 2 SP * * * LED BI BO 150 81 1 Yes
501 Relay PICKUP (Relay PICKUP) P.System Data 2 OUT * * m LED BO 106 84 2 Yes
503 Relay PICKUP Phase L1 (Relay
PICKUP L1 ) P.System Data 2 OUT * * m LED BO 106 64 2 Yes
504 Relay PICKUP Phase L2 (Relay
PICKUP L2 ) P.System Data 2 OUT * * m LED BO 106 65 2 Yes
505 Relay PICKUP Phase L3 (Relay
PICKUP L3 ) P.System Data 2 OUT * * m LED BO 106 66 2 Yes
507 Re lay TRIP command Phase L1
(Relay TRIP L1) P.System Data 2 OUT * * m LED BO 106 69 2 N o
508 Re lay TRIP command Phase L2
(Relay TRIP L2) P.System Data 2 OUT * * m LED BO 106 70 2 N o
509 Re lay TRIP command Phase L3
(Relay TRIP L3) P.System Data 2 OUT * * m LED BO 106 71 2 N o
510 General CLOSE of relay (Relay
CLOSE) P.System Data 2 OUT * * * * LED BO
51 1 Relay GENERAL TRIP command
(Relay T R IP ) P.System Data 2 OUT * ON m LED BO 106 68 2 No
512 Re lay TRIP co mmand - Only
Phase L1 (Relay TRIP 1pL1) P.System Data 2 OUT * * * LED BO
513 Re lay TRIP co mmand - Only
Phase L2 (Relay TRIP 1pL2) P.System Data 2 OUT * * * LED BO
514 Re lay TRIP co mmand - Only
Phase L3 (Relay TRIP 1pL3) P.System Data 2 OUT * * * LED BO
515 Re lay TRIP command Phases
L123 (Relay TRIP 3ph.) P.System Data 2 OUT * * * LED BO
536 Final Trip (Final Trip) P.System Data 2 OUT ON ON * * LED BO 150 180 2 Yes
545 T ime from Pickup t o drop out (PU
Time) P.System Data 2 VI
546 Time from Picku p to TR IP (TRIP
Time) P.System Data 2 VI
561 Manual close signal detected
(Man.Clos.Detect) P.System Data 2 OUT ON * * LED BO 150 211 1 No
563 CB al arm sup pressed (CB Alarm
Supp) P.System Data 2 OUT * * * LED BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 351
1000 Number of breaker TRIP com-
mands (# TRIPs=) Statistics VI
1001 Number of breaker TRIP com-
mands L1 (TripNo L1=) Statistics VI
1002 Number of breaker TRIP com-
mands L2 (TripNo L2=) Statistics VI
1003 Number of breaker TRIP com-
mands L3 (TripNo L3=) Statistics VI
1401 >BF: Switch on breaker fail pro-
tection (>BF on) Breaker Failure SP * * * LED BI BO
1402 >BF: Switch off breaker fail pro-
tection (>BF off) Breaker Failure SP * * * LED BI BO
1403 >BLOCK Breaker failure
(>BLOCK BkrFail) Breaker Failure SP ON
OFF **LEDBIBO
1415 >BF: External start 3pole (>BF
Start 3pole) Breaker Failure SP ON
OFF **LEDBIBO
1432 >BF: External release (>BF re-
lease) Breaker Failure SP ON
OFF **LEDBIBO
1435 >BF: External start L1 (>BF Start
L1) Breaker Failure SP ON
OFF **LEDBIBO
1436 >BF: External start L2 (>BF Start
L2) Breaker Failure SP ON
OFF **LEDBIBO
1437 >BF: External start L3 (>BF Start
L3) Breaker Failure SP ON
OFF **LEDBIBO
1439 >BF: External start 3pole (w/o
current) (>BF Start w/o I) Breaker Failure SP ON
OFF **LEDBIBO
1440 Breaker failure prot. ON/OFF via
BI (BkrFailON/offBI) Breaker Failure IntSP ON
OFF **LEDBO
1451 Breaker failure is switched OFF
(BkrFail OFF) Breaker Failure OUT ON
OFF * * LED BO 166 151 1 Yes
1452 Breaker failure is BLOCKED
(BkrFail BLOCK) Breaker Failure OUT ON
OFF ON
OFF * LED BO 166 152 1 Yes
1453 Breaker failure is ACTIVE (Bkr-
Fail ACTIVE) Breaker Failure OUT ON
OFF * * LED BO 166 153 1 Yes
1454 Breaker fail. masking error curr.
transf (BF Mask. Error) Breaker Failure OUT ON
OFF **LEDBO
1459 BF Pickup End fault stage (BF
EndFlt PU) Breaker Failure OUT * ON
OFF * LED BO 166 184 1 Yes
1461 Breaker failure protectio n st arted
(BF Start) Breaker Failure OUT * ON
OFF m LED BO 166 161 1 Yes
1472 BF Trip T1 (local trip) - only
phase L1 (BF T1-TRIP 1pL1) Breaker Failure OUT * ON * LED BO
1473 BF Trip T1 (local trip) - only
phase L2 (BF T1-TRIP 1pL2) Breaker Failure OUT * ON * LED BO
1474 BF Trip T1 (local trip) - only
phase L3 (BF T1-TRIP 1pL3) Breaker Failure OUT * ON * LED BO
1476 BF Tr ip T1 (local trip) - 3po le (BF
T1-TRIP L123) Breaker Failure OUT * ON m LED BO 166 176 2 Yes
1489 BF Flash Over (BF Flash Over) Breaker Fail ure OUT * ON * LED BO
1490 BF Flash Over Trip (BF FO TRIP) Breake r Failure OUT * ON * LED BO
1493 BF Trip in case of defective CB
(BF TRIP CBdefe c) Breaker Failure OUT * ON m LED BO 166 193 2 Yes
1494 BF TRIP T2 (busbar trip) (BF T2-
TRIP(bus)) Breaker Failure OUT * ON m LED BO 106 85 2 Yes
1495 BF Trip End fault stage (BF
EndFlt TRIP) Breaker Failure OUT * ON m LED BO 166 195 2 Yes
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
352
1496 BF Pole discrepancy pickup (BF
CBdiscrSTART) Breaker Failure OUT * ON
OFF * LED BO 166 196 2 Yes
1497 BF Pole discrepancy pickup L1
(BF CBdi s cr L1) Breaker Failure OUT * ON
OFF * LED BO
1498 BF Pole discrepancy pickup L2
(BF CBdi s cr L2) Breaker Failure OUT * ON
OFF * LED BO
1499 BF Pole discrepancy pickup L3
(BF CBdi s cr L3) Breaker Failure OUT * ON
OFF * LED BO
1500 BF Pole discrepancy Trip (BF
CBdiscr TRIP) Breaker Failure OUT * ON m LED BO 166 200 2 Yes
2701 >Auto reclose ON (>AR ON) Auto Reclose SP * * * LED BI BO
2702 >Auto reclose OFF (>AR OFF) Auto Reclose SP * * * LED BI BO
2703 >BLOCK Auto reclose (>BLOCK
AR) Auto Reclose SP ON
OFF **LEDBIBO
2711 >External start of internal Auto
reclose (>AR Start) Auto Reclose SP * ON * LED BI BO
2712 >AR: Ext. T rip L1 for internal AR
(>Trip L1 AR) Auto Reclose SP * ON * LED BI BO
2713 >AR: Ext. T rip L2 for internal AR
(>Trip L2 AR) Auto Reclose SP * ON * LED BI BO
2714 >AR: Ext. T rip L3 for internal AR
(>Trip L3 AR) Auto Reclose SP * ON * LED BI BO
2715 >Ext. 1pole Trip for internal Auto
Recl. (>T rip 1p for AR) Auto Recl ose SP * ON * LED BI BO
2716 >Ext. 3pole Trip for internal Auto
Recl. (>T rip 3p for AR) Auto Recl ose SP * ON * LED BI BO
2727 >AR: Remote Close signal (>AR
RemoteClose) Auto Recl ose SP * ON * LED BI BO
2731 >AR: Synchronism from ext.
sync.-check (>Sync.release) Auto Reclose SP * * * LED BI BO
2737 >AR: Block 1pole AR-cycle
(>BLOCK 1pole AR) Auto Reclose SP ON
OFF **LEDBIBO
2738 >AR: Block 3pole AR-cycle
(>BLOCK 3pole AR) Auto Reclose SP ON
OFF **LEDBIBO
2739 >AR: Block 1phase-fault AR-
cycle (>BLK 1phase AR) Auto Reclose SP ON
OFF **LEDBIBO
2740 >AR: Block 2phase-fault AR-
cycle (>BLK 2phase AR) Auto Reclose SP ON
OFF **LEDBIBO
2741 >AR: Block 3phase-fault AR-
cycle (>BLK 3phase AR) Auto Reclose SP ON
OFF **LEDBIBO
2742 >AR: Block 1st AR-cycle (>BLK
1.AR-cycle) Auto Reclose SP ON
OFF **LEDBIBO
2743 >AR: Block 2nd AR-cycle (>BLK
2.AR-cycle) Auto Reclose SP ON
OFF **LEDBIBO
2744 >AR: Block 3rd AR-cycle (>BLK
3.AR-cycle) Auto Reclose SP ON
OFF **LEDBIBO
2745 >AR: Block 4th and higher AR-
cycles (>BLK 4.-n. AR) Auto Reclose SP ON
OFF **LEDBIBO
2746 >AR: External Trip for AR start
(>Trip for AR) Auto Reclose SP * ON * LED BI BO
2747 >AR: External pickup L1 for AR
start (>Pickup L1 AR) Auto Reclose SP * ON * LED BI BO
2748 >AR: External pickup L2 for AR
start (>Pickup L2 AR) Auto Reclose SP * ON * LED BI BO
2749 >AR: External pickup L3 for AR
start (>Pickup L3 AR) Auto Reclose SP * ON * LED BI BO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 353
2750 >AR: External pickup 1phase for
AR start (>Pickup 1ph AR) Auto Reclose SP * ON * LED BI BO
2751 >AR: External pickup 2phase for
AR start (>Pickup 2ph AR) Auto Reclose SP * ON * LED BI BO
2752 >AR: External pickup 3phase for
AR start (>Pickup 3ph AR) Auto Reclose SP * ON * LED BI BO
2780 AR: Masking error voltage tr ans-
former (AR Mask. Error) Auto Reclose OUT * ON * LED BO
2781 Auto recloser is switched OFF
(Auto recl. OFF) Auto Reclose OUT ON
OFF **LEDBO40811Yes
2782 Auto recloser is switched ON
(Auto recl. ON) Auto Reclose IntSP * * * LED BO 106 16 1 Yes
2783 AR: Auto-reclose is blocked (AR
is blocked) Auto Reclose OUT ON
OFF **LEDBO40831Yes
2784 Auto recloser is NOT ready (AR is
NOT ready) Auto Reclose OUT * ON * LED BO
2787 AR: Circuit breaker not ready (CB
not ready) Auto Reclose OUT * * * LED BO 40 87 1 No
2788 AR: CB ready monitori ng window
expired (AR T-CBreadyExp) Auto Reclose OUT * ON * LED BO
2796 A R: Au to - re close ON/OFF via BI
(AR on/off BI) Auto Reclose IntSP * * * LED BO
2801 Auto-reclose in progress (AR in
progress) Auto Reclose OUT * ON * LED BO 40 101 2 Yes
2809 AR: Start-signal monitoring time
expired (AR T-Start Exp) Auto Reclose OUT * ON * LED BO
2810 AR: Maximum dead time expi red
(AR TdeadMax Exp) Auto Reclose OUT * ON * LED BO
2818 AR: Evolving fault recognition
(AR evolving Flt) Auto Reclose OUT * ON * LED BO
2820 AR is set to operate after 1p trip
only (AR Program1pole) Auto Reclose OUT * * * LED BO
2821 AR dead time after e volving fault
(AR Td. evol.Flt) Auto Reclose OUT * ON * LED BO
2839 AR dead time after 1pole trip
running (AR Tdead 1pTrip) Auto Reclose OUT * ON * LED BO
2840 AR dead time after 3pole trip
running (AR Tdead 3pTrip) Auto Reclose OUT * ON * LED BO
2841 AR dead time after 1phase fault
running (AR Tdead 1pFlt) Auto Reclose OUT * ON * LED BO
2842 AR dead time after 2phase fault
running (AR Tdead 2pFlt) Auto Reclose OUT * ON * LED BO
2843 AR dead time after 3phase fault
running (AR Tdead 3pFlt) Auto Reclose OUT * ON * LED BO
2844 AR 1st cycle running (AR 1stCyc.
run.) Auto Reclose OUT * ON * LED BO
2845 AR 2nd cycle running (AR
2ndCyc. run.) Aut o Re close OUT * ON * LED BO
2846 AR 3rd cycle running (AR 3rdCyc.
run.) Auto Reclose OUT * ON * LED BO
2847 AR 4th or higher cycle running
(AR 4thCyc. run.) Auto Reclose OUT * ON * LED BO
2848 AR cycle is running in ADT mode
(AR ADT run.) Auto Reclose OUT * ON * LED BO
2851 Auto-reclose Close command
(AR Close) Auto Reclose OUT * ON m LED BO 106 128 1 No
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
354
2852 AR: Close command after 1pole
1st cycle (AR Close1.Cyc1p) Auto Reclose OUT * * * LED BO
2853 AR: Close command after 3pole
1st cycle (AR Close1.Cyc3p) Auto Reclose OUT * * * LED BO
2854 AR: Close command after 2nd
cycle (AR Close 2.Cyc) Auto Reclose OUT * * * LED BO
2861 AR: Reclaim time is running (AR
T-Recl. run.) Auto Reclose OUT * * * LED BO
2862 Auto reclose cycle successful
(AR Successful) Auto Reclose OUT * * * LED BO
2863 Auto reclose Lockout (AR Lock-
out) Auto Reclose OUT * * * LED BO 40 163 1 Yes
2864 AR: 1pole trip permitted by inter-
nal AR (AR 1p Trip Perm) Auto Reclose OUT * * * LED BO
2865 AR: Synchro-check request (AR
Sync.Request) Auto Reclose OUT * * * LED BO
2871 AR: TRIP command 3pole (AR
TRIP 3pole) Auto Reclose OUT * ON * LED BO
2889 AR 1st cycle zone extension
release (AR 1.CycZoneRel) Auto Reclose OUT * * * LED BO
2890 AR 2nd cycle zone extension
release (AR 2.CycZoneRel) Auto Reclose OUT * * * LED BO
2891 AR 3rd cycle zone extension
release (AR 3.CycZoneRel) Auto Reclose OUT * * * LED BO
2892 AR 4th cycle zone extension
release (AR 4.CycZoneRel) Auto Reclose OUT * * * LED BO
2893 AR zone extension (general) ( AR
Zone Release) Auto Reclose OUT * * * LED BO
2894 AR Remote close signal send
(AR Remote Close) Auto Reclose OUT * ON * LED BO
2895 No. of 1st AR-cycle CLOSE com-
mands 1pole (AR #Close1./1p=) Statistics VI
2896 No. of 1st AR-cycle CLOSE com-
mands 3pole (AR #Close1./3p=) Statistics VI
2897 No. of higher AR-cycle CLOSE
commands 1p (AR #Close2./1p=) Statistics VI
2898 No. of higher AR-cycle CLOSE
commands 3p (AR #Close2./3p=) Statistics VI
14101 MB Fail (broken wire/shorted)
(MB Fail) MeasurementBox OUT ON
OFF **LEDBO
141 1 1 Fail: R TD 1 (broken wire/shorted)
(Fail: RTD 1) MeasurementBox OUT ON
OFF **LEDBO
14112 RTD 1 Temperature stage 1
picked up (RTD 1 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14113 RTD 1 Temperature stage 2
picked up (RTD 1 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14114 MBS1 Fail (shorted/broken wire)
(MBS1 Fail) MeasurementBox OUT ON
OFF **LEDBO
141 15 Measurement box sensor 1 Stage
1 p.up (MBS1 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
141 16 Measurement box sensor 1 Stage
2 p.up (MBS1 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14121 Fail: R TD 2 (broken wire/shorted)
(Fail: RTD 2) MeasurementBox OUT ON
OFF **LEDBO
14122 RTD 2 Temperature sta ge 1
picked up (RTD 2 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 355
14123 RTD 2 Temperature stage 2
picked up (RTD 2 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14124 MBS2 Fail (shorted/broken wire)
(MBS2 Fail) MeasurementBox OUT ON
OFF **LEDBO
14125 Measurement box sensor 2 Stage
1 p.up (MBS2 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14126 Measurement box sensor 2 Stage
2 p.up (MBS2 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14131 Fail: RTD 3 (broken wire/shorted)
(Fail: RTD 3) MeasurementBox OUT O N
OFF **LEDBO
14132 RTD 3 Temperature stage 1
picked up (RTD 3 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14133 RTD 3 Temperature stage 2
picked up (RTD 3 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14134 MBS3 Fail (shorted/broken wire)
(MBS3 Fail) MeasurementBox OUT ON
OFF **LEDBO
14135 Measurement box sensor 3 Stage
1 p.up (MBS3 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14136 Measurement box sensor 3 Stage
2 p.up (MBS3 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14141 Fail: RTD 4 (broken wire/shorted)
(Fail: RTD 4) MeasurementBox OUT O N
OFF **LEDBO
14142 RTD 4 Temperature stage 1
picked up (RTD 4 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14143 RTD 4 Temperature stage 2
picked up (RTD 4 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14144 MBS4 Fail (shorted/broken wire)
(MBS4 Fail) MeasurementBox OUT ON
OFF **LEDBO
14145 Measurement box sensor 4 Stage
1 p.up (MBS4 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14146 Measurement box sensor 4 Stage
2 p.up (MBS4 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14151 Fail: RTD 5 (broken wire/shorted)
(Fail: RTD 5) MeasurementBox OUT O N
OFF **LEDBO
14152 RTD 5 Temperature stage 1
picked up (RTD 5 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14153 RTD 5 Temperature stage 2
picked up (RTD 5 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14154 MBS5 Fail (shorted/broken wire)
(MBS5 Fail) MeasurementBox OUT ON
OFF **LEDBO
14155 Measurement box sensor 5 Stage
1 p.up (MBS5 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14156 Measurement box sensor 5 Stage
2 p.up (MBS5 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14161 Fail: RTD 6 (broken wire/shorted)
(Fail: RTD 6) MeasurementBox OUT O N
OFF **LEDBO
14162 RTD 6 Temperature stage 1
picked up (RTD 6 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14163 RTD 6 Temperature stage 2
picked up (RTD 6 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14164 MBS6 Fail (shorted/broken wire)
(MBS6 Fail) MeasurementBox OUT ON
OFF **LEDBO
14165 Measurement box sensor 6 Stage
1 p.up (MBS6 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14166 Measurement box sensor 6 Stage
2 p.up (MBS6 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
356
14171 Fail: R TD 7 (broken wire/shorted)
(Fail: RTD 7) MeasurementBox OUT ON
OFF **LEDBO
14172 RTD 7 Temperature sta ge 1
picked up (RTD 7 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14173 RTD 7 Temperature sta ge 2
picked up (RTD 7 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14174 MBS7 Fail (shorted/broken wire)
(MBS7 Fail) MeasurementBox OUT ON
OFF **LEDBO
14175 Measurement box sensor 7 Stage
1 p.up (MBS7 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14176 Measurement box sensor 7 Stage
2 p.up (MBS7 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14181 Fail: R TD 8 (broken wire/shorted)
(Fail: RTD 8) MeasurementBox OUT ON
OFF **LEDBO
14182 RTD 8 Temperature sta ge 1
picked up (RTD 8 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14183 RTD 8 Temperature sta ge 2
picked up (RTD 8 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14184 MBS8 Fail (shorted/broken wire)
(MBS8 Fail) MeasurementBox OUT ON
OFF **LEDBO
14185 Measurement box sensor 8 Stage
1 p.up (MBS8 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14186 Measurement box sensor 8 Stage
2 p.up (MBS8 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14191 Fail: R TD 9 (broken wire/shorted)
(Fail: RTD 9) MeasurementBox OUT ON
OFF **LEDBO
14192 RTD 9 Temperature sta ge 1
picked up (RTD 9 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14193 RTD 9 Temperature sta ge 2
picked up (RTD 9 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14194 MBS9 Fail (shorted/broken wire)
(MBS9 Fail) MeasurementBox OUT ON
OFF **LEDBO
14195 Measurement box sensor 9 Stage
1 p.up (MBS9 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14196 Measurement box sensor 9 Stage
2 p.up (MBS9 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14201 Fail: RTD10 (broken wire/short-
ed) (Fail: RTD10) MeasurementBox OUT ON
OFF **LEDBO
14202 RTD10 Temperature stage 1
picked up (RTD 10 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14203 RTD10 Temperature stage 2
picked up (RTD 10 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14204 MBS10 Fail (shorted/broken wire)
(MBS10 Fail) MeasurementBox OUT ON
OFF **LEDBO
14205 Measurement box sensor 10
Stage 1 p. up (MBS10 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14206 Measurement box sensor 10
Stage 2 p. up (MBS10 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14211 Fail: RTD11 (broken wire/short-
ed) (Fail: RTD11) MeasurementBox OUT ON
OFF **LEDBO
14212 RTD11 Temperature stage 1
picked up (RTD 11 St.1 p.up ) MeasurementBox OUT ON
OFF **LEDBO
14213 RTD11 Temperature stage 2
picked up (RTD 11 St.2 p.up ) MeasurementBox OUT ON
OFF **LEDBO
14214 MBS1 1 Fail (shorted/broken wire)
(MBS11 Fail) MeasurementBox OUT ON
OFF **LEDBO
No. Description Function Type
of In-
for-
matio
n
Log Buffers Con figurable 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 Interroga ti on
Appendix
A.8 Information List
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 357
14215 Measurement box sensor 11
Stage 1 p.up (MBS11 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14216 Measurement box sensor 11
Stage 2 p.up (MBS11 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14221 Fail: RTD12 (broken wire/short-
ed) (Fail: RTD12) MeasurementBox OUT ON
OFF **LEDBO
14222 RTD12 Temperature stage 1
picked up (RTD12 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14223 RTD12 Temperature stage 2
picked up (RTD12 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14224 MBS12 Fail (shorted/broken wire)
(MBS12 Fail) MeasurementBox OUT ON
OFF **LEDBO
14225 Measurement box sensor 12
Stage 1 p.up (MBS12 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14226 Measurement box sensor 12
Stage 2 p.up (MBS12 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14234 MBS13 Fail (shorted/broken wire)
(MBS13 Fail) MeasurementBox OUT ON
OFF **LEDBO
14235 Measurement box sensor 13
Stage 1 p.up (MBS13 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14236 Measurement box sensor 13
Stage 2 p.up (MBS13 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14244 MBS14 Fail (shorted/broken wire)
(MBS14 Fail) MeasurementBox OUT ON
OFF **LEDBO
14245 Measurement box sensor 14
Stage 1 p.up (MBS14 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14246 Measurement box sensor 14
Stage 2 p.up (MBS14 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14254 MBS15 Fail (shorted/broken wire)
(MBS15 Fail) MeasurementBox OUT ON
OFF **LEDBO
14255 Measurement box sensor 15
Stage 1 p.up (MBS15 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14256 Measurement box sensor 15
Stage 2 p.up (MBS15 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
14264 MBS16 Fail (shorted/broken wire)
(MBS16 Fail) MeasurementBox OUT ON
OFF **LEDBO
14265 Measurement box sensor 16
Stage 1 p.up (MBS16 St.1 p.up) MeasurementBox OUT ON
OFF **LEDBO
14266 Measurement box sensor 16
Stage 2 p.up (MBS16 St.2 p.up) MeasurementBox OUT ON
OFF **LEDBO
17116 Failure Measurement box 1 (Fail-
ure MB1) MeasurementBox OUT ON
OFF **LEDBO
17117 Failure Measurement box 2 (Fail-
ure MB2) MeasurementBox OUT ON
OFF **LEDBO
30053 Fault recording is running (Fault
rec. run.) Osc. Fault Rec. OUT * * * LED BO
31000 Q0 operationcounter= (Q0
OpCnt=) Control Device VI *
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 *
No. Description Function Ty pe
of In-
for-
matio
n
Log Buffers Configurabl e 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 Interroga ti on
Appendix
A.9 Group Alarms
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
358
A.9 Group Alarms
No. Description Function No. De scription
----
Appendix
A.10 Measured Values
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 359
A.10 Measured Values
No. Description Function IEC 60870-5-103 Configurable in Matrix
Type
Information Number
Compatibility
Data Unit
Position
CFC
Control Display
Default Display
- Wp Forward (WpForward) Energy 133 51 No 205 - CFC CD DD
- Wq Forward (WqForward) Energy 133 52 No 205 - CFC CD DD
- Wp Reverse (WpReverse) Energy 133 53 No 205 - CFC CD DD
- Wq Reverse (WqReverse) Energy 133 54 No 205 - CFC CD DD
- Pulsed Energy Wp (active) (Wp(puls)) Energy 133 55 No 205 - CFC CD DD
- Pulsed Energy Wq (reactive) (Wq(puls)) Energy 133 56 No 205 - CFC CD DD
151.0002 Voltage U (U) MU U_1 - - - - - CFC CD DD
151.0010 Current I (I) MU I_1 - - - - - CFC CD DD
151.0021 frequency (f) MU U_1 - - - - - CFC CD DD
151.0021 frequency (f) MU I_1 - - - - - CFC CD DD
151.0022 Vo ltage or Current Input U/I (Input U/I) MU U_1 - - - - -
151.0023 Current Input I (MwCh_I) MU I_1 - - - - -
152.0002 1P1 Voltage U (1P1_U) MU1P_1 106 146 No 3 2 CFC CD DD
134 152 No 9 1
152.0002 1P2 Voltage U (1P2_U) MU1P_2 134 153 No 9 1 CFC CD DD
152.0002 1P3 Voltage U (1P3_U) MU1P_3 134 154 No 9 1 CFC CD DD
152.0010 1P1 Current I (1P1_I) MU1P_1 106 146 No 3 1 CFC CD DD
134 152 No 9 2
152.0010 1P2 Current I (1P2_I) MU1P_2 134 153 No 9 2 CFC CD DD
152.0010 1P3 Current I (1P3_I) MU1P_3 134 154 No 9 2 CFC CD DD
152.0015 1P1 Active Power P (1P1_P) MU1P_1 106 146 No 3 3 CFC CD DD
134 152 No 9 3
152.0015 1P2 Active Power P (1P2_P) MU1P_2 134 153 No 9 3 CFC CD DD
152.0015 1P3 Active Power P (1P3_P) MU1P_3 134 154 No 9 3 CFC CD DD
152.0016 1P1 Reactive Power Q (1P1_Q) MU1P_1 106 146 No 3 4 CFC CD DD
134 152 No 9 4
152.0016 1P2 Reactive Power Q (1P2_Q) MU1P_2 134 153 No 9 4 CFC CD DD
152.0016 1P3 Reactive Power Q (1P3_Q) MU1P_3 134 154 No 9 4 CFC CD DD
152.0017 1P1 Apparent Power S (1P1_S) MU1P_1 134 152 No 9 5 CFC CD DD
152.0017 1P2 Apparent Power S (1P2_S) MU1P_2 134 153 No 9 5 CFC CD DD
152.0017 1P3 Apparent Power S (1P3_S) MU1P_3 134 154 No 9 5 CFC CD DD
152.0018 1P1 Phase Angle Phi (1P1_ϕ) MU1P_1 134 152 No 9 6 CFC CD DD
152.0018 1P2 Phase Angle Phi (1P2_ϕ) MU1P_2 134 153 No 9 6 CFC CD DD
152.0018 1P3 Phase Angle Phi (1P3_ϕ) MU1P_3 134 154 No 9 6 CFC CD DD
152.0019 1P1 Active Power Factor Cosine Phi
(1P1_cosϕ)MU1P_1 134 152 No 9 7 CFC CD DD
152.0019 1P2 Active Power Factor Cosine Phi
(1P2_cosϕ)MU1P_2 134 153 No 9 7 CFC CD DD
152.0019 1P3 Active Power Factor Cosine Phi
(1P3_cosϕ)MU1P_3 134 154 No 9 7 CFC CD DD
152.0020 1P1 Reactive Power Factor Sine Phi
(1P1_sinϕ)MU1P_1 134 152 No 9 8 CFC CD DD
152.0020 1P2 Reactive Power Factor Sine Phi
(1P2_sinϕ)MU1P_2 134 153 No 9 8 CFC CD DD
152.0020 1P3 Reactive Power Factor Sine Phi
(1P3_sinϕ)MU1P_3 134 154 No 9 8 CFC CD DD
Appendix
A.10 Measured Values
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
360
152.0021 1P1 Frequency of U (1P1_f) MU1P_1 134 152 No 9 9 CFC CD DD
152.0021 1P2 Frequency of U (1P2_f) MU1P_2 134 153 No 9 9 CFC CD DD
152.0021 1P3 Frequency of U (1P3_f) MU1P_3 134 154 No 9 9 CFC CD DD
152.0022 1P1 Voltage Input U (1P1Input_U) MU1P_1 - - - - -
152.0022 1P2 Voltage Input U (1P2Input_U) MU1P_2 - - - - -
152.0022 1P3 Voltage Input U (1P3Input_U) MU1P_3 - - - - -
152.0023 1P1 Current Input I (1P1Input_I) MU1P_1 - - - - -
152.0023 1P2 Current Input (1P2Input_I) MU1P_2 - - - - -
152.0023 1P3 Current Input I (1P3Input_I) MU1P_3 - - - - -
153.0003 3P1 Zero Sequence Voltage U0 (3P1_U0) MU3P_1 134 156 No 9 1 CFC CD DD
153.0004 3P1 Phase to Earth Voltage U1 (3P1_U1) MU3P_1 106 148 No 9 4 CFC CD DD
134 151 No 9 2
134 156 No 9 2
153.0005 3P1 Phase to Earth Voltage U2 (3P1_U2) MU3P_1 106 148 No 9 5 CFC CD DD
134 151 No 9 3
134 156 No 9 3
153.0006 3P1 Phase to Earth Voltage U3 (3P1_U3) MU3P_1 106 148 No 9 6 CFC CD DD
134 151 No 9 4
134 156 No 9 4
153.0007 3P1 Phase to Phase V olt age U12 (3P1_U12) MU3P_1 134 151 No 9 5 CFC CD DD
134 156 No 9 5
153.0008 3P1 Phase to Phase V olt age U23 (3P1_U23) MU3P_1 134 151 No 9 6 CFC CD DD
134 156 No 9 6
153.0009 3P1 Phase to Phase V olt age U31 (3P1_U31) MU3P_1 134 151 No 9 7 CFC CD DD
134 156 No 9 7
153.0011 3P1 Zero Sequence Current I0 (3P1_I0) MU3P_1 134 156 No 9 8 CFC CD DD
153.0012 3P1 Phase Current I1 (3P1_I1) MU3P_1 106 148 No 9 1 CFC CD DD
134 151 No 9 9
134 156 No 9 9
153.0013 3P1 Phase Current I2 (3P1_I2) MU3P_1 106 148 No 9 2 CFC CD DD
134 151 No 9 10
134 156 No 9 10
153.0014 3P1 Phase Current I3 (3P1_I3) MU3P_1 106 148 No 9 3 CFC CD DD
134 151 No 9 11
134 156 No 9 11
153.0015 3P1 Active Power Three Phase (3P1_P) MU3P_1 106 148 No 9 7 CFC CD DD
134 151 No 9 12
134 156 No 9 12
153.0016 3P1 Reactive Power Three Phase (3P1_Q) MU3P_1 106 148 No 9 8 CFC CD DD
134 151 No 9 13
134 156 No 9 13
153.0017 3P1 Apparent Power Three Phase (3P1_S) MU3P_1 134 151 No 9 14 CFC CD DD
134 156 No 9 14
153.0018 3P1 Phase Angle Three Phase (3P1_ϕ) MU3P_1 134 156 No 9 15 CFC CD DD
153.0019 3P1 Active Power Factor Three Phase
(3P1_cosϕ)MU3P_1 134 151 No 9 15 CFC CD DD
134 156 No 9 16
153.0020 3P1 Reactive Power Factor Three Phase
(3P1_sinϕ)MU3P_1 - - - - - CFC CD DD
No. Description Function IEC 60870-5-103 Configurable in Matrix
Type
Information Number
Compatibility
Data Unit
Position
CFC
Control Display
Default Display
Appendix
A.10 Measured Values
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011 361
153.0021 3P1 Frequency (3P1_f) MU3P_1 106 148 No 9 9 CFC CD DD
134 151 No 9 16
153.0024 3P1 V oltage Input U1 (3P1InputU1) MU3P_1 - - - - -
153.0025 3P1 V oltage Input U2 (3P1InputU2) MU3P_1 - - - - -
153.0026 3P1 V oltage Input U3 (3P1InputU3) MU3P_1 - - - - -
153.0027 3P1 Current Input I1 (3P1InputI1) MU3P_1 - - - - -
153.0028 3P1 Current Input I2 (3P1InputI2) MU3P_1 - - - - -
153.0029 3P1 Current Input I3 (3P1InputI3) MU3P_1 - - - - -
153.0098 3P1 Zero Sequence Voltage 3U0 (3 P1_3U0) MU3P_1 134 151 No 9 1 CFC CD DD
153.0099 3P1 Zero Sequence Current 3I0 (3P1_3I0) MU3P_1 134 151 No 9 8 CFC CD DD
154.0007 A1 Phase to Phase Voltage U12 (A1_U12) MUAron_1 134 155 No 9 1 CFC CD DD
154.0009 A1 Phase to Phase Voltage U13 (A1_U13) MUAron_1 134 155 No 9 2 CFC CD DD
154.0013 A1 Phase Current I2 (A1_I2) MUAron_1 134 155 No 9 3 CFC CD DD
154.0014 A1 Phase Current I3 (A1_I3) MUAron_1 134 155 No 9 4 CFC CD DD
154.0015 A1 Active Power P (A1_P) MUAron_1 134 155 No 9 5 CFC CD DD
154.0016 A1 Reactive Power Q (A1_Q) MUAron_1 134 155 No 9 6 CFC CD DD
154.0017 A1 Apparent Power S (A1_S) MUAron_1 134 155 No 9 7 CFC CD DD
154.0018 A1 Phase Angle Phi (A1_ϕ) MUAron_1 134 155 No 9 8 CFC CD DD
154.0019 A1 Active Power Factor Cosine Phi
(A1_cosϕ)MUAron_1 134 155 No 9 9 CFC CD DD
154.0020 A1 Reactive Power Factor Sine Phi
(A1_sinϕ)MUAron_1 134 155 No 9 10 CFC CD DD
154.0021 A1 Frequency (A1_f) MUAron_1 134 155 No 9 11 CFC CD DD
154.0024 A1 Vo ltage Input U1 (A1Input_U1) MUAron_1 - - - - -
154.0025 A1 Vo ltage Input U2 (A1Input_U2) MUAron_1 - - - - -
154.0027 A1 Current Input I1 (A1Input_I1) MUAron_1 - - - - -
154.0028 A1 Voltage Input I2 (A1I nput_I2) MUAron_1 - - - - -
170.0024 Sync1, Voltage input U1 (Sy1 ChU1) SYNC function 1 - - - - -
170.0024 Sync2, Voltage input U1 (Sy2 ChU1) SYNC function 2 - - - - -
170.0024 Sync3, Voltage input U1 (Sy3 ChU1) SYNC function 3 - - - - -
170.0024 Sync4, Voltage input U1 (Sy4 ChU1) SYNC function 4 - - - - -
170.0024 Sync5, Voltage input U1 (Sy5 ChU1) SYNC function 5 - - - - -
170.0025 Sync1, Voltage input U2 (Sy1 ChU2) SYNC function 1 - - - - -
170.0025 Sync2, Voltage input U2 (Sy2 ChU2) SYNC function 2 - - - - -
170.0025 Sync3, Voltage input U2 (Sy3 ChU2) SYNC function 3 - - - - -
170.0025 Sync4, Voltage input U2 (Sy4 ChU2) SYNC function 4 - - - - -
170.0025 Sync5, Voltage input U2 (Sy5 ChU2) SYNC function 5 - - - - -
170.0025 Sync6, Voltage input U2 (Sy6 ChU2) SYNC function 6 - - - - -
170.0025 Sync7, Voltage input U2 (Sy7 ChU2) SYNC function 7 - - - - -
170.0025 Sync8, Voltage input U2 (Sy8 ChU2) SYNC function 8 - - - - -
170.0030 Sync6, Voltage input U1, 1.PE (Sy6 ChU11) SYNC function 6 - - - - -
170.0030 Sync7, Voltage input U1, 1.PE (Sy7 ChU11) SYNC function 7 - - - - -
170.0030 Sync8, Voltage input U1, 1.PE (Sy8 ChU11) SYNC function 8 - - - - -
170.0031 Sync6, Voltage input U1, 2.PE (Sy6 ChU12) SYNC function 6 - - - - -
170.0031 Sync7, Voltage input U1, 2.PE (Sy7 ChU12) SYNC function 7 - - - - -
170.0031 Sync8, Voltage input U1, 2.PE (Sy8 ChU12) SYNC function 8 - - - - -
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 1 130 1 No 9 1 CFC CD DD
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 2 130 2 No 9 1 CFC CD DD
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 3 130 3 No 9 1 CFC CD DD
No. Description Function IEC 60870-5-103 Configurable in Matrix
Type
Information Number
Compatibility
Data Unit
Position
CFC
Control Display
Default Display
Appendix
A.10 Measured Values
SIPROTEC, 6MD66x, Manual
C53000-G1876-C102-7, Release date 08.2011
362
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 4 130 4 No 9 1 CFC CD DD
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 5 130 5 No 9 1 CFC CD DD
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 6 130 6 No 9 1 CFC CD DD
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 7 130 7 No 9 1 CFC CD DD
170.0070 Sync. voltage U1 (Sync. U1) SYNC function 8 130 8 No 9 1 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 1 130 1 No 9 3 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 2 130 2 No 9 3 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 3 130 3 No 9 3 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 4 130 4 No 9 3 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 5 130 5 No 9 3 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 6 130 6 No 9 3 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 7 130 7 No 9 3 CFC CD DD
170.0071 Sync. voltage U2 (Sync. U2) SYNC function 8 130 8 No 9 3 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 1 130 1 No 9 2 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 2 130 2 No 9 2 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 3 130 3 No 9 2 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 4 130 4 No 9 2 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 5 130 5 No 9 2 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 6 130 6 No 9 2 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 7 130 7 No 9 2 CFC CD DD
170.0072 Sync. voltage difference U1,U2 (Sync. Vdiff) SYNC function 8 130 8 No 9 2 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 1 130 1 No 9 6 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 2 130 2 No 9 6 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 3 130 3 No 9 6 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 4 130 4 No 9 6 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 5 130 5 No 9 6 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 6 130 6 No 9 6 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 7 130 7 No 9 6 CFC CD DD
170.0073 Sync. angle between U1,U2 (Sync. α) SYNC function 8 130 8 No 9 6 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 1 130 1 No 9 4 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 2 130 2 No 9 4 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 3 130 3 No 9 4 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 4 130 4 No 9 4 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 5 130 5 No 9 4 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 6 130 6 No 9 4 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 7 130 7 No 9 4 CFC CD DD
170.0074 Sync. frequency f1 (Sync. f1) SYNC function 8 130 8 No 9 4 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 1 130 1 No 9 7 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 2 130 2 No 9 7 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 3 130 3 No 9 7 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 4 130 4 No 9 7 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 5 130 5 No 9 7 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 6 130 6 No 9 7 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 7 130 7 No 9 7 CFC CD DD
170.0075 Sync. frequency f2 (Sync. f2) SYNC function 8 130 8 No 9 7 CFC CD DD
170.0076 Sync. frequency difference f1, f2 ( Sync. fdiff) SYNC function 1 130 1 No 9 5 CFC CD DD
170.0076 Sync. frequency difference f1, f2 ( Sync. fdiff) SYNC function 2 130 2 No 9 5 CFC CD DD
170.0076 Sync. frequency difference f1, f2 ( Sync. fdiff) SYNC function 3 130 3 No 9 5 CFC CD DD
170.0076 Sync. frequency difference f1, f2 ( Sync. fdiff) SYNC function 4 130 4 No 9 5 CFC CD DD
No. Description Function IEC 60870-5-103 Configurable in Matrix
Type
Information Number
Compatibility
Data Unit
Position
CFC
Control Display
Default Display
Appendix
A.10 Measured Values
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170.0076 Sync. frequency difference f1, f2 (Sync. fdiff) SYNC function 5 130 5 No 9 5 CFC CD DD
170.0076 Sync. frequency difference f1, f2 (Sync. fdiff) SYNC function 6 130 6 No 9 5 CFC CD DD
170.0076 Sync. frequency difference f1, f2 (Sync. fdiff) SYNC function 7 130 7 No 9 5 CFC CD DD
170.0076 Sync. frequency difference f1, f2 (Sync. fdiff) SYNC function 8 130 8 No 9 5 CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 1 - - - - - CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 2 - - - - - CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 3 - - - - - CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 4 - - - - - CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 5 - - - - - CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 6 - - - - - CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 7 - - - - - CFC CD DD
170.0088 Sync. df S (Sync. df S) SYNC function 8 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 1 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 2 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 3 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 4 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 5 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 6 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 7 - - - - - CFC CD DD
170.0089 Sync.ddfdt (Sync.ddfdt) SYNC function 8 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 1 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 2 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 3 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 4 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 5 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 6 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 7 - - - - - CFC CD DD
170.0090 Sync.ddfdtS (Sync.ddfdtS) SYNC function 8 - - - - - CFC CD DD
996 Transducer 1 (Td1=) Measurement 134 136 No 9 1 CFC CD DD
997 Transducer 2 (Td2=) Measurement 134 136 No 9 2 CFC CD DD
1068 Temperatur e of RTD 1 (Θ RTD 1 =) Meas. Thermal - - - - - CFC CD DD
1069 Temperatur e of RTD 2 (Θ RTD 2 =) Meas. Thermal - - - - - CFC CD DD
1070 Temperatur e of RTD 3 (Θ RTD 3 =) Meas. Thermal - - - - - CFC CD DD
1071 Temperatur e of RTD 4 (Θ RTD 4 =) Meas. Thermal - - - - - CFC CD DD
1072 Temperatur e of RTD 5 (Θ RTD 5 =) Meas. Thermal - - - - - CFC CD DD
1073 Temperatur e of RTD 6 (Θ RTD 6 =) Meas. Thermal - - - - - CFC CD DD
1074 Temperatur e of RTD 7 (Θ RTD 7 =) Meas. Thermal - - - - - CFC CD DD
1075 Temperatur e of RTD 8 (Θ RTD 8 =) Meas. Thermal - - - - - CFC CD DD
1076 Temperatur e of RTD 9 (Θ RTD 9 =) Meas. Thermal - - - - - CFC CD DD
1077 Temperatur e of RTD10 (Θ RTD10 =) Meas. Thermal - - - - - CFC CD DD
1078 Temperature of RTD11 (Θ RTD11 =) Meas. Thermal - - - - - CFC CD DD
1079 Temperatur e of RTD12 (Θ RTD12 =) Meas. Thermal - - - - - CFC CD DD
15100 Vol tage Input U1 (Input U1) P.System Data 2 - - - - -
15101 Vol tage Input U2 (Input U2) P.System Data 2 - - - - -
15102 Vol tage Input U3 (Input U3) P.System Data 2 - - - - -
15110 Current Input I1 (Input I1) P.System Data 2 - - - - -
15111 Current Input I2 (Input I2) P.System Data 2 - - - - -
15112 Current Input I3 (Input I3) P.System Data 2 - - - - -
No. Description Function IEC 60870-5-103 Configurable in Matrix
Type
Information Number
Compatibility
Data Unit
Position
CFC
Control Display
Default Display
Appendix
A.10 Measured Values
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■
17100 Measurement box meas. value sensor 1
(MBS1=) Meas. Thermal - - - - - CFC CD DD
17101 Measurement box meas. value sensor 2
(MBS2=) Meas. Thermal - - - - - CFC CD DD
17102 Measurement box meas. value sensor 3
(MBS3=) Meas. Thermal - - - - - CFC CD DD
17103 Measurement box meas. value sensor 4
(MBS4=) Meas. Thermal - - - - - CFC CD DD
17104 Measurement box meas. value sensor 5
(MBS5=) Meas. Thermal - - - - - CFC CD DD
17105 Measurement box meas. value sensor 6
(MBS6=) Meas. Thermal - - - - - CFC CD DD
17106 Measurement box meas. value sensor 7
(MBS7=) Meas. Thermal - - - - - CFC CD DD
17107 Measurement box meas. value sensor 8
(MBS8=) Meas. Thermal - - - - - CFC CD DD
17108 Measurement box meas. value sensor 9
(MBS9=) Meas. Thermal - - - - - CFC CD DD
17109 Measurement box meas. value sensor 10
(MBS10=) Meas. Thermal - - - - - CFC CD DD
17110 Measurement box meas. value sensor 11
(MBS11=) Meas. Thermal - - - - - CFC CD DD
17111 Measurement box meas. value sensor 12
(MBS12=) Meas. Thermal - - - - - CFC CD DD
17112 Measurement box meas. value sensor 13
(MBS13=) Meas. Thermal - - - - - CFC CD DD
17113 Measurement box meas. value sensor 14
(MBS14=) Meas. Thermal - - - - - CFC CD DD
17114 Measurement box meas. value sensor 15
(MBS15=) Meas. Thermal - - - - - CFC CD DD
17115 Measurement box meas. value sensor 16
(MBS16=) Meas. Thermal - - - - - CFC CD DD
No. Description Function IEC 60870-5-103 Configurable in Matrix
Type
Information Number
Compatibility
Data Unit
Position
CFC
Control Display
Default Display
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Literature
/1/ SIPROTEC 4 System Description; E50417-H1176-C151-B1
/2/ SIPROTEC DIGSI, Start Up; E50417-G1176-C152-A5
/3/ DIGSI CFC, Manual; E50417-H1176-C098-A9
/4/ SIPROTEC SIGRA 4, Manual; E50417-H1176-C070-A4
/5/ PROFIBUS DP Communication profile (available on DIGSI CD and on the Internet); C53000–L1840–
B001–03
/6/ PROFIBUS DP Bus mapping 6MD663 / 6MD664 (available on DIGSI CD and on the Internet); C53000–
L1840–B011–03
/7/ SIPROTEC Ethernet module IEC 61850 with 100 Mb it electrical interface, C53000-B1174-C167-02
Literature
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Glossary
Battery
The buffer battery ensures that specified data areas, flags, timers and counters are retained retentively.
Bay cont ro llers
Bay controllers are devices with control and monitoring functio ns without protective functions.
Bit pattern indication
Bit pattern indication is a processing function by means of which items of digital process information applying
across several inputs can be detected together in parallel and processed further . The bit pattern length can be
specified as 1, 2, 3 or 4 bytes.
BP_xx
→ Bit pattern indication (Bitstring Of x Bit), x designates the length in bits (8, 16, 24 or 32 bits).
C_xx
Command without feedback
CF_xx
Command with feedback
CFC
Continuous Function Chart. 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 thei r purpose.
Chatter blocking
A rapidly intermittent input (for example, due to a relay contact fault) is switched off after a configurable moni-
toring time and can thus not generate any further signal changes. The function prevents overloading of the
system when a fault arises.
Combination devices
Combination devices are bay devices with pr otection functions and a control display.
Glossary
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Combination matrix
From DIGSI V4.6 onward, up to 32 compatible SIPROTEC 4 devices can communicate with one another in an
Inter Relay Communication combina tion (IRC combination). Which devi ce exchanges which information is
defined with the help of the combination matrix.
Communication br anch
A communications branch corresponds to the configuration of 1 to n users that communicate by means of a
common bus.
Communication reference CR
The communication reference describes the type and version of a station in communication by PROFIBUS.
Component view
In addition to a topological view, SIMATIC Manager offers you a component view. The component view does
not offer any overview of the hierarchy of a project. It does, however , provide an overview of all the SIPROTEC
4 devices within a project.
COMTRADE
Common Format for Transient Data Exchange, format for fault records.
Container
If an object can contain other objects, it is called a container. The object Folder is an example of such a con-
tainer.
Control display
The display which is displayed on devices with a large (graphic) display after you have pressed the control key
is called the control display. It contains the switchgear that can be controlled in the feeder with status display.
It is used to perform switching operations. Defining this display is part of the configuration.
Data pane
→ The right-hand area of the project window displays the 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
transmitter in Mainflingen near Frankfurt/Main. The emitted time signal can be received within a radius of
approx. 1,500 km from Frankfurt/Main.
Device container
In the Component View, all SIPROTEC 4 devices are assigned to an object of type Device container. This
object is a special object of DIGSI Manager. However, since there is no component view in DIGSI Manager ,
this object only becomes visible in conjunction with STEP 7.
Glossary
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Double command
Double commands are process outputs which indicate 4 process states at 2 outputs: 2 defined (for example
ON/OFF) and 2 undefined states (for example intermediate positions)
Double-point indication
Double-point indications are items of process information which indicate 4 process states at 2 inputs: 2 defined
(for example ON/OFF) and 2 undefined states (for example intermediate positions).
DP
→ Double-point indication
DP_I
→ Double point indication, intermediate position 00
Drag and drop
Copying, moving and linking function, used at graphics user interfaces. Objects are selected with the mouse,
held and moved from one data area to another.
Earth
The conductive earth whose electric potential can be set equal to zero at every point. In the area of earth elec-
trodes the earth can have a potential deviating from zero. The term "Earth reference plane" is often used for
this state.
Earth (verb)
This term means that a conductive part is connected via an earthing system to the → earth.
Earthing
Earthing is the total of all means and measures used for earthing.
Electromagnetic compatibility
Electromagnetic compatibility (EMC) is the ability of an electrical apparatus 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 t o pr otect electro static sensi ti v e de v ices.
ExBPxx
External bit pattern indication via an ETHERNET connection, device-specific → Bit pattern indication
Glossary
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ExC
External command without feedback via an ETHERNET connection, device-specific
ExCF
External command with feedback via an ETHERNET connection, device-specific
ExDP
External double point indication via an ETHERNET connection, device-sp ecific → Double point indication
ExDP_I
External double point indication via an ETHERNET connection, intermediate position 00, device-specific →
Double point indication
ExMV
External metered value via an ETHERN ET connection, device-specific
ExSI
External single point indication via an ETHERNET connection, device-speci fic → Single point indication
ExSI_F
External single point indication via an ETHERNET connection, device-speci fic → Transient information, →
Single point indication
Field devices
Generic term for all devices assigned to the field level: Protection devices, combina ti on devices, bay control-
lers.
Floating
→ Without electrical connection to the → Earth.
FMS communication branch
Within an FMS communication branch, the users communicate on the basis of the PROFIBUS FMS protocol
via a PROFIBUS FMS network.
Folder
This object type is used to create the hierarchical structure of a project.
General interrogation (GI)
During the system start-up the state of all the process inputs, of the status and of the fault image is sampled.
This information is used to update the system-end proce ss image. The current process state can also be
sampled after a data loss by means of a GI.
Glossary
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GOOSE message
GOOSE messages (Generic Object Oriented Substation Event) are data packets which are transferred event-
controlled via the Ethernet communication system. They serve for direct information exchange among the
relays. This mechanism implem ents cross-communicati on between bay units.
GPS
Global Positioning System. Satellites with atomic clocks on board orbit the earth twice a day on different pa ths
in approx. 20,000 km. They transmit signals which also contain the GPS universal time. The GPS receiver de-
termines its own position from the signals received. From its position it can derive the delay time of a satellite
signal and thus correct the transmitted GPS universal time.
Hierarchy level
Within a structure with higher-level and lower-level objects a hierarchy level is a container of equivalent objects.
HV field description
The HV project description file contains details of fields which exist in a ModPara-project. The actual field infor-
mation of each field is stored in a HV field description file. Within the HV project description file, each field is
allocated such a HV field descriptio n fil e by a reference to the file name.
HV project description
All the data is exported once the configuration and parameterization of PCUs and sub-modules using ModPara
has been completed. This data is split up into several files. One file contains details about the fundamental
project structure. This also includes, for example, information detailing which fields exist in this project. This file
is called a HV project description file.
ID
Internal double point indication → Double point indication
ID_S
Internal double point indication, intermediate position 00 → Double point indication
IEC
International Electrotechnical Commission, intern ational standardisation body
IEC address
Within an IEC bus a unique IEC address has to be assigne d to each SIPROTEC 4 device. A total of 254 IEC
addresses are available for each IEC bus.
IEC communication branch
Within an IEC communication branch the users communicate on the basis of the IEC60-870-5-103 protocol via
an IEC bus.
Glossary
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IEC61850
International commu nication standard for communication in substations. The objective of this standard is the
interoperability of devices from different manufacturers on the station bus. An Ethernet network is used for data
transfer.
Initialization string
An initialization string comprises a range of modem-specific commands. 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
IRC combination
Inter Relay Communication, IRC, is used for directly exchanging process information between SIPROTEC 4
devices. You require an object of type IRC combination to config ure an inter relay communication. Each user
of the combination and all the necessary communication parameters are defined in this object. The type and
scope of the information exchanged between the users is also stored in this object.
IRIG-B
Time signal code of the Inter-Range Instrumentation Group
IS
Internal single point indication → Single po int indication
IS_F
Internal indication transient → Transient information, → Single point indication
ISO 9001
The ISO 9000 ff range of standards defines measures used to assure the quality of a product from the devel-
opment stage to the manufacturing stage.
LFO filter
(Low Frequency Oscillation) filter for low-frequency oscillations
Link address
The link address gives the address of a V3/V2 device.
List view
The right window section of the project window displays the name s and icons of objects which represent the
contents of a container selected in the tree view. Because they are displayed in the form of a list, this area is
called the list view.
Glossary
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LV
Limit value
LVU
Limit value, user -defined
Master
Masters may send data to other users and request data from other users. DIGSI operates as a master.
Metered value
Metered values are a processing function with which the total number of discrete similar events (counting
pulses) is determined for a period, usually as an integrated value. In power supply companies the electrical
work is usually recorded as a metered 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 are 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
modem.
Modem profile
A modem profile consists of the name of the profile, a modem driver and may also comprise several initialization
commands and a user address. You can create several modem profiles for one physical modem. To do so you
need to link various initialization commands or user addresses to a modem driver and its properties and save
them under different names.
Modems
Modem profiles for a modem connection are stored in this object type.
MV
Measured value
MVMV
Metered value which is formed from the measured value
MVT
Measured value with time
MVU
Measured value, user-defined
Glossary
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Navigation pane
The left pane of the project window displays the names and symbols of all containers of a project in the form
of a folder tree.
Object
Each element of a project structure is called an object in DIGSI.
Object properties
Each object has properties. These might be general properties that are common to several objects. An object
can also have specific properties.
Off-line
In offline mode a connection to a SIPROTEC 4 device is not required. You work with data which are stored in
files.
OI_F
Output Indication Transient → Transient information
On-line
When working in online mode, there is a physical connection 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
Parameter set
The parameter set is the set of all parameters that can be set for a SIPROTEC 4 device.
Phone book
User addresses for a modem connection are saved in this object type.
PMV
Pulse metered value
Process bus
Devices with a process bus interface allow direct communication with SICAM HV modules. The process bus
interface is equipped with an Ethernet module.
PROFIBUS
PROcess FIeld BUS, the German process and field bus standard, as specified in the standard EN 50170,
Volume 2, PROFIBUS. It defines the functional, electrical, and mechanical properties for a bit-serial field bus.
Glossary
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PROFIBUS address
Within a PROFIBUS network a unique PROFIBUS address has to be assigned to each SIPROTEC 4 device.
A total of 254 PROFIBUS addresses are available for each PROFIBUS network.
Project
Content-wise, a project is the image of a real power supply system. Graphically, a project is represented as a
number of objects which are integrated in a hierarchical structure. Physically, a project consists of a number of
directories and files containing project data.
Protection devices
All devices with a protective function and no control display.
Reorganizing
Frequent addition and deletion of objects results in memory areas that can no longer be used. By reorganizing
projects, you can release these memory areas again. However, a cleanup also reassigns the VD addresses.
The consequence is that all SIPROTEC 4 devices have to be reinitialized.
RIO file
Relay data Interchange format by Omicron.
RSxxx-interface
Serial interfaces RS232, RS422/485
SCADA Interface
Rear serial interface on the devices for connecting to a control system via IEC or PROFIBUS.
Service port
Rear serial interface on the devices for connecting DIGSI (for example, via modem).
Setting parameters
General term for all adjustments made to the device. Parameterization jobs are executed by means of DIGSI
or, in some cases, directly on the device.
SI
→ Single point indication
SI_F
→ Single point indication transient → Transient information, → Single point indication
SICAM WinCC
The SICAM WinCC operator control and monitori ng system displays the state of your network graphically, vi-
sualizes alarms, interrupts and indications, archives the network data, offers the possibility of intervening man-
ually in the process and manages the system rights of the individual employee.
Glossary
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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 distributed systems with multiple SICAM Station Units. The software is a modular system
with basic and optional packages. SICAM PAS is a purely distributed system: the process interface is imple-
mented by the use of bay units / remote terminal units.
SICAM Station Unit
The SICAM Station Unit with its special hardware (no fan, no rotating parts) and its Windows XP Embedded
operating system is the basis for SICAM PAS.
Single command
Single commands are process outputs which indicate 2 process states (for example, ON/OFF) at one output.
Single point indication
Single indications are items of process information which indicate 2 process states (for example, ON/OFF) at
one output.
SIPROTEC
The registered trademark SIPROTEC is used for devices implemented on system base V4.
SIPROTEC 4 device
This object type represents a real SIPROTEC 4 device with all the setting values and process data it contains.
SIPROTEC 4 variant
This object type represents a variant of an object of type SIPROTEC 4 device. The device data of this variant
may well differ from the device data of the original object. However , all variants derived from the original object
have the same VD address as the original object. For this reason they always correspond to the same real
SIPROTEC 4 device as the original object. Objects of type SIPROTEC 4 variant have a variety of uses, such
as documenting different operating states when entering parameter settings of a SIPROTEC 4 device.
Slave
A slave may only exchange data with a master after being prompted to do so by the master. SIPROTEC 4
devices operate as slaves.
Time stamp
Time stamp is the assignment of the real time to a process event.
Topological view
DIGSI Manager always displays a project in the topological view. This shows the hierarchical structure of a
project with all available objects.
Transformer Tap Indicati on
T ransformer t ap indication is a processing function on the DI by means of which the tap of the transformer tap
changer can be detected together in parallel and processed furth er.
Glossary
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Transient information
A transient information is a brief transient → single-point indication at which only the coming of the process
signal is detected and processed immediately.
Tree view
The left pane of the project window displays the names and symbols of all containers of a project in the form
of a folder tree. This area is called the tree view.
TxTap
→ T r ansformer Tap Indication
User address
A user address comprises the name of the user , the national code, the area code and the user-specific phone
number.
Users
From DIGSI V4.6 onward , up to 32 compatible SIPROTEC 4 devices can communicate with one another in an
Inter Relay Communication combination. The individu al participating devices are called users.
VD
A VD (Virtual Device) includes all communication objects and their properties and states that are used by a
communication user through services. 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 exist s only once in the entire project and thus
serves to identify unambiguously a re al 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.
VFD
A VFD (Virtual Field Device) includes all communication objects and their properties and states that are used
by a communication user through services.
VI
VI stands for Value Indication.
Glossary
SIPROTEC, 6MD66x, Manual
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SIPROTEC, 6MD66x, Manual
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Index
A
Adaptive Dead T ime 274
Adaptive Dead Time (ADT) 140
Additional functions 277
Alternating voltage 252
Analog inputs 250
Angle adjustment 82
Assignment of the D-sub socket 232
Auto-reclosure
Multiple 131
Automatic Reclosure 274
Automatic reclosure
Automatic Reclosure Function 122, 122
Auxiliary Contacts of the CB 105
Auxiliary voltage 211, 252
B
Bay interlocking 96
Binary input
Switching threshold 211
Binary inputs 219 , 252
Binary outputs 252
Busbar Tripping 244
C
Cabinet mounting 227
cable shield 232
CFC 22
Chatter ON 30
Check: command job 41
Check: Switching states of binary inputs and outputs 240
Check: User-defined functions 246
Circuit breaker
Fault 112
Position detection 151
Position log i c 151
Circuit breaker closing time 82
Circuit Breaker Failure Protection 102
End Fault Protection 272
Pole Discrepancy Supervision 272
Circuit breaker failure protection 116
Circuit breaker monitoring 272
Initiation conditions 272
Circuit breaker not operational 118
Circuit-breaker failure protection
Times 272
Climatic stress 260
Clock synchronisation 31
Clock T i me Synchronisation 277
Command acknowledgement 42
Command processing 38
Command types 40
Commissionin g ai d s 277
Connecting external instrument transfo rmers 196
Connector
Checks 235
Construction designs 261
CPU
Jumper settings 216
Current flow monitoring 104
Current inputs 17, 250
D
D-sub socket 232
De-interlockings 101
Dead Bus 83
Dead bus connection 69
Dead Line 83
Dead Line Check 140, 274
Dead line connection 69
Delay times single stage/two stage breaker failure protec-
tion 110
Deployment Conditions 260
Device assembly 225
Dimensions: Cabinet flush mounting 278
Dimensions: D-subminiature Connector of Dongle
Cable 281
Dimensions: Detached Operator Panel 280
Dimensions: Panel flush mounting 278
Dimensions: Surface mounting housing with detached op-
eration panel 279
Dimensions: Surface mounting housing without operation
panel 279
Direct voltage 252
Disassembly of the devi ce 212
Display lighting 29, 33
Index
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380
Dongle cable 229
Double operati on blocking 100
E
Electrical Tests 257
EMC 232
EMC Tests for Interference Emission (Type Test) 258
EMC Tests for Interference Immunity (Type Tests) 257
EN100-module
Interface Sel e cti o n 195
End Fault Protection 113
End fault protection 119
Ethernet EN 100 232
External instrument transformers 276
External minute pulse 31
F
Fault Recording 35
Feedback monitoring 43
Feeder voltage 70
Final preparation of the device 247
Flash-Over Protection 114
Forced 3-pol e Trip 139
Frequency difference 84
Frequency working range 84
Function blocks 265
Function logic 150
Functional scope 26
G
GOOSE 181
H
Humidity 260
Hysteresis 84
I
IDC combination 164
Immunity 232
Initiation breaker failure protection 106
Input/out pu t modules
Jumper positions 219, 221
Inter Relay Communication 159
Inter relay communication 23
Inter relay communication with IEC61850 181
Inter-device communication 18
Inter-device communication interface 254
Inter-relay communication 224
Interfaces
D-sub socket 232
Replacement module s 223
serial 211, 223
Interlocking checks 22
Interruption in communicati on 36
IRCCombination user 167
combinatio n user 163
Failure monitoring 164
Routing rules 170
Isolation Test 257
J
Jumpers 211, 211, 211, 211, 211, 216, 217, 219, 223
K
Keyswitch 22
L
Limit measured values 45
Limit range behaviour 251, 251, 251, 251, 251
Limits for CFC Blocks 268
Limits for User-defined Functions 268
Line energization recognition 150
Live status contact 216
Lower voltage limit Vmin 83
M
Measured value processing 22
Measured values
Limit measured va lue 45
Operational measured values 45
User-defined 45
Measured values -
derived 45
Measurement -
monophase 55
three-phase 56
Measurement Box 196
Measurement inputs 17
Measuring transducer 17, 26, 63
Measuring transducer inputs 250
Measuring transducer packets 60
Index
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Mechanical Tests 259
Metered values
Measured value / metered value 63
Precision 60
Module arrangement 6MD663 214
Module arrangement 6MD664 214
Module arrangement of 6MD662 213
Monitoring functions 23
N
Nominal transformer current 54, 55, 56, 58
Nominal transformer voltage 53, 55, 56, 58
O
Open pole detector 153
Operating metered values 60
Operational measured values 45, 270, 276
Operator Interface 253
Ordering Information 284
Oscillographi c Recording for Test 245
Output relays binary outputs 253
P
Password 26
Phase segregated initiation of the breaker failure protec-
tion 108
Pickup logic for the entire device 155
Pole Discrepancy Supervision 114
Pole discrepancy supervision 119
Power metering 60
Power supply 252
PROFIBUS 211, 223, 224, 232
PROFIBUS DP 20
Pulse metered value 61
R
Rack mounting 227
Rated system frequency 28
Reclose Cycle 143
Reclosure Cycle 141, 142
Reduced Dead Time 140, 274
Reference voltage 70
Reference voltages 68
Regulations 257
S
Secondary rated transformer voltage V1 82
Secondary rated transformer voltage V2 83
Sequence in the command path 40
Service interface 212
Service/ Modem Interface 254
Set points 22
Single-stage breaker failure protection 118
Standard interlocking 95
Start Test Measurement Recording 245
Subnetworks 19, 84
Summertime 32
Switch delay time 84
Switchgear interlocking 73, 92
Switching authority 22, 26, 98
Switching device control 262
Switching direction check 100
Switching mode 22, 26, 99
Switching sequence 72
Switching sequences 22
Synchrocheck 19, 72
Synchronisation 17
Synchronisation check
Duration 83
Synchronization 21, 26
Check 73, 79
Conditions 68
Input indications 79
Measured values 82
Measuring 74
Selection of SYNC function grou p 72
Start conditions 73
synchronization
Delay time 70
Function group 71
Output indications 80
synchronization -
synchronization comparison 70
System interface 212, 255
T
Temperatures 260
Terminating resistors 211, 223, 224
Test mode 31, 2 38
Test:
Circuit Breaker Failure Protection 243
Test: System interface 238
Test: Trip/close of configured resurces 246
Threshold switch 66, 67
Threshold value 83
Time synchronisation 23
Time Synchronisation Interface 256
Time synchronization interface 233
Index
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Time Tagging 277
Transfer trip to the remote end circuit breaker 112
Transformer class 273
Transmission block 238
Transmission thresholds 66
Trip command duration 158
Tripping logic of the entire de vice 156
Two-stage breaker failure protection 117
U
Upper voltage limit Vmax 83
V
Vibration and Shock Stress during Stationary Use 259
Vibration and Shock Stress during Transport 259
Voltage application 70, 72
Voltage difference 84
Voltage inputs 17
Voltage supervisi on 154
W
Web Mo ni to r 202
