RE_630_dnppoint_756790_ENc

Relion® Protection and Control

630 seriesDNP3 Point List Manual

Document ID: 1MRS756790Issued: 2012-08-29

Revision: CProduct version: 1.2

© Copyright 2012 ABB. All rights reserved

CopyrightThis document and parts thereof must not be reproduced or copied without writtenpermission from ABB, and the contents thereof must not be imparted to a thirdparty, nor used for any unauthorized purpose.

The software or hardware described in this document is furnished under a licenseand may be used, copied, or disclosed only in accordance with the terms of suchlicense.

TrademarksABB and Relion are registered trademarks of the ABB Group. All other brand orproduct names mentioned in this document may be trademarks or registeredtrademarks of their respective holders.

WarrantyPlease inquire about the terms of warranty from your nearest ABB representative.

http://www.abb.com/substationautomation

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DisclaimerThe data, examples and diagrams in this manual are included solely for the conceptor product description and are not to be deemed as a statement of guaranteedproperties. All persons responsible for applying the equipment addressed in thismanual must satisfy themselves that each intended application is suitable andacceptable, including that any applicable safety or other operational requirementsare complied with. In particular, any risks in applications where a system failure and/or product failure would create a risk for harm to property or persons (including butnot limited to personal injuries or death) shall be the sole responsibility of theperson or entity applying the equipment, and those so responsible are herebyrequested to ensure that all measures are taken to exclude or mitigate such risks.

This document has been carefully checked by ABB but deviations cannot becompletely ruled out. In case any errors are detected, the reader is kindly requestedto notify the manufacturer. Other than under explicit contractual commitments, inno event shall ABB be responsible or liable for any loss or damage resulting fromthe use of this manual or the application of the equipment.

ConformityThis product complies with the directive of the Council of the EuropeanCommunities on the approximation of the laws of the Member States relating toelectromagnetic compatibility (EMC Directive 2004/108/EC) and concerningelectrical equipment for use within specified voltage limits (Low-voltage directive2006/95/EC). This conformity is the result of tests conducted by ABB inaccordance with the product standards EN 50263 and EN 60255-26 for the EMCdirective, and with the product standards EN 60255-1 and EN 60255-27 for the lowvoltage directive. The product is designed in accordance with the internationalstandards of the IEC 60255 series.

Table of contents

Section 1 Introduction.......................................................................3This manual........................................................................................3Intended audience..............................................................................3Product documentation.......................................................................3

Product documentation set............................................................3Document revision history.............................................................4Related documentation..................................................................4

Symbols and conventions...................................................................5Symbols.........................................................................................5Document conventions..................................................................5

Section 2 DNP3 data mappings.......................................................7Overview.............................................................................................7Point list for 630 series IEDs .............................................................7

Section 3 DNP3 protocol implementation.......................................53DNP3 device profile..........................................................................53DNP3 implementation table..............................................................56

Section 4 Glossary.........................................................................61

Table of contents

630 series 1Point List Manual

Section 1 Introduction

1.1 This manual

The point list manual describes the outlook and properties of the data pointsspecific to the IED. The manual should be used in conjunction with thecorresponding communication protocol manual.

1.2 Intended audience

This manual addresses the communication system engineer or system integratorresponsible for pre-engineering and engineering for communication setup in asubstation from an IED perspective.

The system engineer or system integrator must have a basic knowledge ofcommunication in protection and control systems and thorough knowledge of thespecific communication protocol.

1.3 Product documentation

1.3.1 Product documentation setThe application manual contains descriptions of preconfigurations. The manual canbe used as a reference for configuring control, protection, measurement, recordingand LED functions. The manual can also be used when creating configurationsaccording to specific application requirements.

The commissioning manual contains instructions on how to commission the IED.The manual can also be used by system engineers and maintenance personnel forassistance during the testing phase. The manual provides procedures for checkingof external circuitry and energizing the IED, parameter setting and configuration aswell as verifying settings by secondary injection. The manual describes the processof testing an IED in a substation which is not in service. The chapters are organizedin chronological order in which the IED should be commissioned.

The communication protocol manual describes a communication protocolsupported by the IED. The manual concentrates on vendor-specific implementations.

The engineering manual contains instructions on how to engineer the IEDs usingthe different tools in PCM600. The manual provides instructions on how to set up a

1MRS756790 C Section 1Introduction


PCM600 project and insert IEDs to the project structure. The manual alsorecommends a sequence for engineering of protection and control functions, LHMIfunctions as well as communication engineering for IEC 60870-5-103, IEC 61850and DNP3.

The installation manual contains instructions on how to install the IED. Themanual provides procedures for mechanical and electrical installation. The chaptersare organized in chronological order in which the IED should be installed.

The operation manual contains instructions on how to operate the IED once it hasbeen commissioned. The manual provides instructions for monitoring, controllingand setting the IED. The manual also describes how to identify disturbances andhow to view calculated and measured power grid data to determine the cause of afault.

The point list manual describes the outlook and properties of the data pointsspecific to the IED. The manual should be used in conjunction with thecorresponding communication protocol manual.

The technical manual contains application and functionality descriptions and listsfunction blocks, logic diagrams, input and output signals, setting parameters andtechnical data sorted per function. The manual can be used as a technical referenceduring the engineering phase, installation and commissioning phase, and duringnormal service.

1.3.2 Document revision historyDocument revision/date Product version HistoryA/2009-09-15 1.0 First release

B/2011-02-23 1.1 Content updated to correspond to theproduct version

C/2012-08-29 1.2 Content updated to correspond to theproduct series version

Download the latest documents from the ABB Web sitehttp://www.abb.com/substationautomation.

1.3.3 Related documentationName of the document Document IDDNP3 Communication Protocol Manual 1MRS756789

Section 1 1MRS756790 CIntroduction

4 630 seriesPoint List Manual

HTTP://WWW.ABB.COM/SUBSTATIONAUTOMATION

1.4 Symbols and conventions

1.4.1 Symbols

The caution icon indicates important information or warning relatedto the concept discussed in the text. It might indicate the presenceof a hazard which could result in corruption of software or damageto equipment or property.

The information icon alerts the reader of important facts andconditions.

The tip icon indicates advice on, for example, how to design yourproject or how to use a certain function.

Although warning hazards are related to personal injury, it is necessary tounderstand that under certain operational conditions, operation of damagedequipment may result in degraded process performance leading to personal injuryor death. Therefore, comply fully with all warning and caution notices.

1.4.2 Document conventionsA particular convention may not be used in this manual.

• Abbreviations and acronyms in this manual are spelled out in the glossary. Theglossary also contains definitions of important terms.

• Push-button navigation in the LHMI menu structure is presented by using thepush-button icons.To navigate between the options, use and .

• HMI menu paths are presented in bold.Select Main menu/Settings.

• WHMI menu names are presented in bold.Click Information in the WHMI menu structure.

• LHMI messages are shown in Courier font.To save the changes in non-volatile memory, select Yes and press .

• Parameter names are shown in italics.The function can be enabled and disabled with the Operation setting.

• The ^ character in front of an input or output signal name in the function blocksymbol given for a function, indicates that the user can set an own signal namein PCM600.

• The * character after an input or output signal name in the function blocksymbol given for a function, indicates that the signal must be connected to

1MRS756790 C Section 1Introduction


another function block in the application configuration to achieve a validapplication configuration.

Section 1 1MRS756790 CIntroduction


Section 2 DNP3 data mappings

2.1 Overview

This document describes the DNP3 data points and structures available inREF630 / REG630 / REM630 / RET630 Ver. 1.2. The data points are unmappedas a default. The point lists describe a superset of all data available including theoptional functionalities.

The point tables show all the available DNP3 data points in these IEDs. The DNP3points can be freely added, removed, reorganized and reconfigured using PCM600.

As a default, the class assignments are Class 0 and Class 3 for binary inputs andoutputs and for double bit indications. The class assignment for analog inputs andfor counters are Class 0 and Class 2. Analog values are provided with defaultscalings. The scalings can be freely modified.

This list represents the superset of DNP3 points. The actual set of available pointsdepends on the product, optional functionalities and configuration.

See the engineering manual and DNP3 communication protocolmanual for more information.

2.2 Point list for 630 series IEDs

Table 1: Signal point list

Function name Signal type Signal name DescriptionActive Group (ACTVGRP) Binary inputs ACTVGRP.1.GRP1 Setting group 1 is active

ACTVGRP.1.GRP2 Setting group 2 is active



Automation bits (AUTOBITS) Binary outputs AUTOBITS.1.CMDBIT1 Command out bit 1

AUTOBITS.1.CMDBIT2 Command out bit 2






Table continues on next page

1MRS756790 C Section 2DNP3 data mappings


Function name Signal type Signal name Description AUTOBITS.1.CMDBIT8 Command out bit 8

























Bool to Int (B16I) Analog inputs B16I.1.OUT Output value

Breaker failure (CCBRBRF) Binary inputs CCBRBRF.1.CB_FAULT_AL Delayed CB failure alarm

CCBRBRF.1.TRBUBack-up trip by breaker failureprotection function

CCBRBRF.1.TRRETRetrip by breaker failureprotection function

Current circuit supervision(CCRDIF) Binary inputs CCRDIF.1.FAIL

Detection of current circuitfailure

Three-phase currentmeasurements (CMMXU) Analog inputs CMMXU.1.I_DB_A (IL1)

Phase A amplitude, magnitudeof reported value

CMMXU.1.I_DB_B (IL2)Phase B amplitude, magnitudeof reported value

CMMXU.1.I_DB_C (IL3)Phase C amplitude, magnitudeof reported value

CMMXU.1.I_ANGL_A (IL1angle)

Phase A angle, instantaneousvalue

CMMXU.1.I_ANGL_B (IL2angle)

Phase B angle, instantaneousvalue


Section 2 1MRS756790 CDNP3 data mappings


Function name Signal type Signal name Description

CMMXU.1.I_ANGL_C (IL3angle)

Phase C angle, instantaneousvalue

CMMXU.1.I_RANGE_A Phase A amplitude range

CMMXU.1.I_RANGE_B Phase B amplitude range

CMMXU.1.I_RANGE_C Phase C amplitudet range

Sequence currentmeasurements (CSMSQI) Analog inputs CSMSQI.1.I1_DB

Positive sequence currentamplitude, reported value

CSMSQI.1.I1_ANGL_INSTPositive sequence currentangle, instantaneous value

CSMSQI.1.I2_DBNegative sequence currentamplitude, reported value

CSMSQI.1.I2_ANGL_INSTNegative sequence currentangle, instantaneous value

CSMSQI.1.I1_RANGEPositive sequence current I1range

CSMSQI.1.I2_RANGENegative sequence current I2range

Event counters (CNTGGIO) Counters CNTGGIO.1.VALUE1 Output of counter 1

CNTGGIO.1.VALUE2 Output of counter 2





Power monitoring function withP, Q, S, power factor(PWRMMXU) Analog inputs PWRMMXU.1.P_DB

Active Power magnitude ofdeadband value

PWRMMXU.1.Q_DBReactive Power magnitude ofdeadband value

PWRMMXU.1.S_DBApparent Power magnitude ofdeadband value

PWRMMXU.1.F_DBSystem frequency magnitude ofdeadband value

PWRMMXU.1.PF_DBPower Factor magnitude ofdeadband value

PWRMMXU.1.S_RANGE Apparent Power range

PWRMMXU.1.P_RANGE Active Power range

PWRMMXU.1.Q_RANGE Reactive Power range

PWRMMXU.1.PF_RANGE Apparent Power range

PWRMMXU.1.F_RANGE Apparent Power range

Binary inputs PWRMMXU.1.ILAG Current is lagging voltage

PWRMMXU.1.ILEAD Current is leading voltage

Disturbance report (DRRDRE) Analog inputs DRRDRE.1.Fault number Disturbance fault number

Binary inputs DRRDRE.1.RECMADE Disturbance recording made

DRRDRE.1.CLEAREDAll disturbances in thedisturbance report cleared





DRRDRE.1.DRPOFFDisturbance report functionturned off

DRRDRE.1.MEMUSED More than 80% of memory used

DRRDRE.1.RECSTART Disturbance recording started

DNP small disturbance report(DNPFREC) Analog inputs

DNPFREC.1.Active settinggroup Active setting group

DNPFREC.1.Fault Freq Fault Freq

DNPFREC.1.Fault Location Fault Location

DNPFREC.1.Fault Number Fault Number

DNPFREC.1.Fault Type Fault Type

DNPFREC.1.No of faults in IED No of faults in IED

DNPFREC.1.Trig Signal Id Trig Signal Id

DNPFREC.1.Trigger Day Trigger Day

DNPFREC.1.Trigger Hour Trigger Hour

DNPFREC.1.Trigger Millisecond Trigger Millisecond

DNPFREC.1.Trigger Minute Trigger Minute

DNPFREC.1.Trigger Month Trigger Month

DNPFREC.1.Trigger Second Trigger Second

DNPFREC.1.Trigger Year Trigger Year

DNPFREC.1.Sig1 Fault Angle Fault Angle

DNPFREC.1.Sig1 FaultMagnitude Fault Magnitude

DNPFREC.1.Sig1 PrefaultAngle Prefault Angle

DNPFREC.1.Sig1 PrefaultMagnitude Prefault Magnitude














Function name Signal type Signal name Description DNPFREC.1.Sig18 Fault Angle Fault Angle
























































DNPFREC.1.Sig31 Magnitudeat trig Magnitude at trig














Binary outputsDNPFREC.1.Get firstdisturbance Get first disturbance

DNPFREC.1.Get nextdisturbance Get next disturbance

DNPFREC.1.Get previousdisturbance Get previous disturbance

Communication logic forresidual OC (RESCPSCH) Binary inputs RESCPSCH.1.CS

Carrier Send byCommunication Scheme Logic

RESCPSCH.1.LCG

Loss of carrier guard signaloutput from communicationscheme logic

RESCPSCH.1.PRORXTeleprotection signal receivedfor a forward fault

RESCPSCH.1.OPERATETrip by communication schemelogic

Current reversal and WEI logicfor residual OC (RCRWPSCH) Binary inputs RCRWPSCH.1.CR

POR Carrier signal receivedfrom remote end

RCRWPSCH.1.ECHO Carrier send by WEI logic

RCRWPSCH.1.OPR_WEI Operation of WEI logic

Non-directional earth-faultprotection, instantaneous stage(EFIPTOC) Binary inputs EFIPTOC.1.OPERATE Started

EFIPTOC.1.START Operated

Non-directional earth-faultprotection, high stage(EFHPTOC) Binary inputs EFHPTOC.1.OPERATE Started

EFHPTOC.1.START Operated

Non-directional earth-faultprotection, low stage(EFLPTOC) Binary inputs EFLPTOC.1.OPERATE Started

EFLPTOC.1.START Operated




Function name Signal type Signal name DescriptionDirectional earth-faultprotection, high stage(DEFHPDEF) Analog inputs DEFHPDEF.1.FAULT_DIR Detected fault direction

Binary inputs DEFHPDEF.1.OPERATE Operated signal

DEFHPDEF.1.START Started signal

Directional earth-faultprotection, low stage(DEFLPDEF) Analog inputs DEFLPDEF.1.FAULT_DIR Detected fault direction

Binary inputs DEFLPDEF.1.OPERATE Operated signal

DEFLPDEF.1.START Started signal

Distance protection (DSTPDIS) Analog inputs DSTPDIS.1.DIR_E_FLTEarth-fault direction (low imp.earthed), GFC

DSTPDIS.1.CONFLICT_Z1 Tilt angle validity check, Zone Z1



DSTPDIS.1.CONFLICT_ZAR1Tilt angle validity check, ZoneAR1

DSTPDIS.1.CONFLICT_ZAR2Tilt angle validity check, ZoneAR2

DSTPDIS.1.DIRECTION Direction of fault or load

DSTPDIS.1.1 DIR_LOOP_XAR1

Record data of bank 1 fordirection reactance, Zone AR1



DSTPDIS.1.1 DIR_LOOP_X Z1Record data of bank 1 fordirection reactance, Zone Z1





















DSTPDIS.1.1 DIR_LOOP_RAR1

Record data of bank 1 fordirection resistance, Zone AR1



DSTPDIS.1.1 DIR_LOOP_R Z1Record data of bank 1 fordirection resistance, Zone Z1

















DSTPDIS.1.1 FLTLOOP_XFSTAR1

Record data of bank 1 for PE-loop reactance (1st), Zone AR1



DSTPDIS.1.1 FLTLOOP_XFSTZ1

Record data of bank 1 for PE-loop reactance (1st), Zone Z1





























DSTPDIS.1.1 FLTLOOP_XSNDAR1

Record data of bank 1 for PE-loop reactance (2nd), Zone AR1



DSTPDIS.1.1 FLTLOOP_XSNDZ1

Record data of bank 1 for PE-loop reactance (2nd), Zone Z1

























DSTPDIS.1.1 FLTLOOP_RFSTAR1

Record data of bank 1 for PE-loop resistance (1st), Zone AR1







DSTPDIS.1.1 FLTLOOP_RFSTZ1

Record data of bank 1 for PE-loop resistance (1st), Zone Z1

























DSTPDIS.1.1 FLTLOOP_RSNDAR1

Record data of bank 1 for PE-loop resistance (2nd), Zone AR1



DSTPDIS.1.1 FLTLOOP_RSNDZ1

Record data of bank 1 for PE-loop resistance (2nd), Zone Z1





























DSTPDIS.1.1 FLTLOOP_XPPAR1

Record data of bank 1 for PP-loop reactance, Zone AR1



DSTPDIS.1.1 FLTLOOP_XPPZ1

Record data of bank 1 for PP-loop reactance, Zone Z1

























DSTPDIS.1.1 FLTLOOP_RPPAR1

Record data of bank 1 for PP-loop resistance, Zone AR1



DSTPDIS.1.1 FLTLOOP_RPPZ1

Record data of bank 1 for PP-loop resistance, Zone Z1





























DSTPDIS.1.1 DIRECTIONRecord data of bank 1 fordirection



DSTPDIS.1.1 DIR_E_FLT GFCRecord data of bank 1 for EF-direction, GFC



DSTPDIS.1.1 RELEASE_PEGFC

Record data of bank 1 forrelease PE-loops, GFC





DSTPDIS.1.1 RELEASE_PPGFC

Record data of bank 1 forrelease PP-loops, GFC





DSTPDIS.1.1 Zones OPERATERecord data of bank 1 foroperate signals of all zones







Binary inputs DSTPDIS.1.OPERATE_GFCTime delayed operate-signal,GFC

DSTPDIS.1.START_GFC General start-signal, GFC –

DSTPDIS.1.ST_GFC_A Event start phase A, GFC

DSTPDIS.1.ST_GFC_B Event start phase B, GFC

DSTPDIS.1.ST_GFC_C Event start phase C, GFC

DSTPDIS.1.RELEASE_AEvent release phase A to earthfault

DSTPDIS.1.RELEASE_BEvent release phase B to earthfault

DSTPDIS.1.RELEASE_CEvent release phase C to earthfault

DSTPDIS.1.RELEASE_ABEvent release phase A to phaseB

DSTPDIS.1.RELEASE_BCEvent release phase B to phaseC

DSTPDIS.1.RELEASE_CAEvent release phase C tophase A

DSTPDIS.1.RELEASE_ABC Event release 3-phase fault

DSTPDIS.1.EARTH_FLTIndication of a single phaseearth fault, GFC

DSTPDIS.1.XC_FLTIndication of a cross-country-fault (high imp. earthed), GFC

DSTPDIS.1.CONFLICT_GFCConflict with PSL-function andvoltage measuring principle

DSTPDIS.1.OPERATE_Z1Time delayed operate signal,Zone Z1

DSTPDIS.1.START_Z1 General start-signal, Zone Z1

DSTPDIS.1.ST_Z1_A Event start phase A, Zone Z1

DSTPDIS.1.ST_Z1_B Event start phase B, Zone Z1

DSTPDIS.1.ST_Z1_C Event start phase C, Zone Z1















DSTPDIS.1.OPERATE_ZAR1Time delayed operate signal,Zone AR1

DSTPDIS.1.START_ZAR1 General start-signal, Zone AR1

DSTPDIS.1.ST_ZAR1_A Event start phase A, Zone AR1

DSTPDIS.1.ST_ZAR1_B Event start phase B, Zone AR1

DSTPDIS.1.ST_ZAR1_C Event start phase C, Zone AR1

DSTPDIS.1.OPERATE_ZAR2Time delayed operate signal,Zone AR2

DSTPDIS.1.START_ZAR2 General start-signal, Zone AR2

DSTPDIS.1.ST_ZAR2_A Event start phase A, Zone AR2

DSTPDIS.1.ST_ZAR2_B Event start phase B, Zone AR2

DSTPDIS.1.ST_ZAR2_C Event start phase C, Zone AR2

DSTPDIS.1.1 EARTH_FLT GFCRecord data of bank 1 for earthfault, GFC



DSTPDIS.1.1 XC_FLT GFCRecord data of bank 1 for crosscountry fault, GFC



High impedance basedrestricted earth-fault(HREFPDIF) Binary inputs HREFPDIF.1.START

High impedance restrictedearth-fault protection start

HREFPDIF.1.OPERATEHigh impedance restrictedearth-fault protection operate

Three-phase voltage (phase-to-earth voltages) (RMS)(VPHMMXU) Analog inputs VPHMMXU.1.U_DB_A (UL1)

Phase A amplitude, magnitudeof reported value

VPHMMXU.1.U_DB_B (UL2)Phase B amplitude, magnitudeof reported value

VPHMMXU.1.U_DB_C (UL3)Phase C amplitude, magnitudeof reported value

VPHMMXU.1.U_ANGL_A (UL1angle) Phase A angle

VPHMMXU.1.U_ANGL_B (UL1angle) Phase B angle

VPHMMXU.1.U_ANGL_C (UL1angle) Phase C angle

VPHMMXU.1.U_RANGE_A Phase A amplitude range

VPHMMXU.1.U_RANGE_B Phase B amplitude range

VPHMMXU.1.U_RANGE_C Phase C amplitude range




Function name Signal type Signal name DescriptionThree-phase voltage (phase-to-phasevoltages) (RMS)(VPPMMXU) Analog inputs VPPMMXU.1.V_DB_AB (UL12)

Phase A to B amplitude,magnitude of reported value

VPPMMXU.1.V_DB_BC (UL23)Phase B to C amplitude,magnitude of reported value

VPPMMXU.1.V_DB_CA (UL31)Phase C to A amplitude,magnitude of reported value

VPPMMXU.1.V_ANGL_AB(U12 angle) Phase A to B angle

VPPMMXU.1.V_ANGL_BC(U23 angle) Phase B to C angle

VPPMMXU.1.V_ANGL_CA(U31 angle) Phase C to A angle

VPPMMXU.1.U_RANGE_AB Phase AB amplitude range

VPPMMXU.1.U_RANGE_BC Phase BC amplitude range

VPPMMXU.1.U_RANGE_CA Phase CA amplitude range

Sequence voltage (VSMSQI) Analog inputs VSMSQI.1.U1_DBPositive sequence voltageamplitude, reported value

VSMSQI.1.U2_DBNegative sequence voltageamplitude, reported value

VSMSQI.1.U1_ANGL_INSTPositive sequence voltageangle, instantaneous value

VSMSQI.1.U2_ANGL_INSTNegative sequence voltageangle, instantaneous value

VSMSQI.1.U1_RANGEPositive sequence voltage U1range

VSMSQI.1.U2_RANGENegative sequence voltage U2range

Residual current (RESCMMXU) Analog inputs RESCMMXU.1.I0_DB (I0)Residual current RMS,magnitude of reported value

RESCMMXU.1.I0_ANGL (I0angle) Residual current angle

RESCMMXU.1.I0_RMS_RANGE Residual current IG RMS range

Residual voltage (RESVMMXU) Analog inputs RESVMMXU.1.U0_MAG_DBResidual voltage Amplitude,magnitude of reported value

RESVMMXU.1.U0_ANGL_INST(U0 angle)

Residual voltage angle,instantaneous value

RESVMMXU.1.U0_RMS_DB(U0)

Residual voltage RMS,magnitude of reported value

RESVMMXU.1.U0_RMS_RANGE Residual voltage RMS range

RESVMMXU.1.U0_MAG_RANGE Residual voltage MAG range

Three-phase non-directionalovercurrent, low stage(PHLPTOC) Binary inputs PHLPTOC.1.ST_A Started phase A

PHLPTOC.1.ST_B Started phase B




Function name Signal type Signal name Description PHLPTOC.1.ST_C Started phase C

PHLPTOC.1.START Started signal

PHLPTOC.1.OPR_A Operated phase A

PHLPTOC.1.OPR_B Operated phase B

PHLPTOC.1.OPR_C Operated phase C

PHLPTOC.1.OPERATE Operated

Three-phase non-directionalovercurrent, high stage(PHHPTOC) Binary inputs PHHPTOC.1.ST_A Started phase A

PHHPTOC.1.ST_B Started phase B

PHHPTOC.1.ST_C Started phase C

PHHPTOC.1.START Started signal

PHHPTOC.1.OPR_A Operated phase A

PHHPTOC.1.OPR_B Operated phase B

PHHPTOC.1.OPR_C Operated phase C

PHHPTOC.1.OPERATE Operated

Three-phase non-directionalovercurrent, instantaneousstage (PHIPTOC) Binary inputs PHIPTOC.1.ST_A Started phase A

PHIPTOC.1.ST_B Started phase B

PHIPTOC.1.ST_C Started phase C

PHIPTOC.1.START Started signal

PHIPTOC.1.OPR_A Operated phase A

PHIPTOC.1.OPR_B Operated phase B

PHIPTOC.1.OPR_C Operated phase C

PHIPTOC.1.OPERATE Operated

Negative-sequence overcurrent(NSPTOC) Binary inputs NSPTOC.1.START Start Signal

NSPTOC.1.OPERATE Operate Signal

Phase discontinuity(PDNSPTOC) Binary inputs PDNSPTOC.1.START

Phase discontinuity protectionstarted

PDNSPTOC.1.OPERATEPhase discontinuity protectionoperated.

Three-phase thermal overloadfor feeder (T1PTTR) Binary inputs T1PTTR.1.OPERATE Operate Signal

T1PTTR.1.START Start Signal

T1PTTR.1.BLK_CLOSEThermal overload indicator. Toinhibit reclose

T1PTTR.1.ALARM Alarm signal

Negative-sequence overvoltage(NSPTOV ) Binary inputs NSPTOV.1.START

Start signal for NegativeSequence Overvoltage logic

NSPTOV.1.OPERATEOperate signal for NegativeSequence Overvoltage logic




Function name Signal type Signal name DescriptionThree-phase overvoltage(PHPTOV) Binary inputs PHPTOV.1.ST_A Start signal, phase 1

PHPTOV.1.ST_B Start signal, phase 2

PHPTOV.1.ST_C Start signal, phase 3

PHPTOV.1.START Start signal, combined

PHPTOV.1.OPR_A Operate signal, phase 1

PHPTOV.1.OPR_B Operate signal, phase 2

PHPTOV.1.OPR_C Operate signal, phase 3

PHPTOV.1.OPERATE Operate signal, combined

Three-phase undervoltage(PHPTUV) Binary inputs PHPTUV.1.ST_A Start signal, phase 1

PHPTUV.1.ST_B Start signal, phase 2

PHPTUV.1.ST_C Start signal, phase 3

PHPTUV.1.START Start signal, combined

PHPTUV.1.OPR_A Operate signal, phase 1

PHPTUV.1.OPR_B Operate signal, phase 2

PHPTUV.1.OPR_C Operate signal, phase 3

PHPTUV.1.OPERATE Operate signal, combined

Positive-sequence overvoltage(PSPTOV) Binary inputs PSPTOV.1.START

Start signal for PositiveSequence Overvoltage logic

PSPTOV.1.OPERATEOperate signal for PositiveSequence Overvoltage logic

Positive-sequenceundervoltage (PSPTUV) Binary inputs PSPTUV.1.START

Start signal for PositiveSequence Undervoltage logic

PSPTUV.1.OPERATE

Operate signal for PositiveSequence Undervoltageprotection

Three phase directionalovercurrent, low stage(DPHLPDOC) Analog inputs DPHLPDOC.1.FAULT_DIR Detected fault direction, general

DPHLPDOC.1.FLT_DIR_A Detected fault direction, phase A

DPHLPDOC.1.FLT_DIR_B Detected fault direction, phase B

DPHLPDOC.1.FLT_DIR_C Detected fault direction, phase C

Binary inputs DPHLPDOC.1.START Started signal

DPHLPDOC.1.OPERATE Operated

DPHLPDOC.1.ST_A Started phase A

DPHLPDOC.1.ST_B Started phase B

DPHLPDOC.1.ST_C Started phase C

DPHLPDOC.1.OPR_A Operated phase A

DPHLPDOC.1.OPR_B Operated phase B

DPHLPDOC.1.OPR_C Operated phase C

Residual overvoltage(ROVPTOV) Binary inputs ROVPTOV.1.START

Start signal for residualovervoltage logic





ROVPTOV.1.OPERATEOperate signal for residualovervoltage logic

Three phase directionalovercurrent, high stage(DPHHPDOC) Analog inputs DPHHPDOC.1.FAULT_DIR Detected fault direction, general

DPHHPDOC.1.FLT_DIR_A Detected fault direction, phase A

DPHHPDOC.1.FLT_DIR_B Detected fault direction, phase B

DPHHPDOC.1.FLT_DIR_C Detected fault direction, phase C

Binary inputs DPHHPDOC.1.START Started signal

DPHHPDOC.1.OPERATE Operated

DPHHPDOC.1.ST_A Started phase A

DPHHPDOC.1.ST_B Started phase B

DPHHPDOC.1.ST_C Started phase C

DPHHPDOC.1.OPR_A Operated phase A

DPHHPDOC.1.OPR_B Operated phase B

DPHHPDOC.1.OPR_C Operated phase C

Fault locator (SCEFRFLO) Analog inputs SCEFRFLO.1.1 A Flt angle PhA

Record data of bank 1 forphase A current angle duringfault

SCEFRFLO.1.1 A Flt angle PhB

Record data of bank 1 forphase B current angle duringfault

SCEFRFLO.1.1 A Flt angle PhC

Record data of bank 1 forphase C current angle duringfault

SCEFRFLO.1.1 A Flt value PhA

Record data of bank 1 forphase A current amplitudeduring fault

SCEFRFLO.1.1 A Flt value PhB

Record data of bank 1 forphase B current amplitudeduring fault

SCEFRFLO.1.1 A Flt value PhC

Record data of bank 1 forphase C current amplitudeduring fault

SCEFRFLO.1.1 A Pre angle PhARecord data of bank 1 forphase A pre-fault current angle

SCEFRFLO.1.1 A Pre angle PhBRecord data of bank 1 forphase B pre-fault current angle

SCEFRFLO.1.1 A Pre anglePhC

Record data of bank 1 forphase C pre-fault current angle

SCEFRFLO.1.1 A Pre value PhA

Record data of bank 1 forphase A pre-fault currentamplitude

SCEFRFLO.1.1 A Pre value PhB

Record data of bank 1 forphase B pre-fault currentamplitude

SCEFRFLO.1.1 A Pre value PhC

Record data of bank 1 forphase C pre-fault currentamplitude





SCEFRFLO.1.1 EF_VALIDITYRecord data of bank 1 forvalidity of earth-fault location

SCEFRFLO.1.1 FAULT_LOOPRecord data of bank 1 for faultloop

SCEFRFLO.1.1FLT_DISTANCE

Record data of bank 1 for faultdistance

SCEFRFLO.1.1 IFLT_PER_ILD

Record data of bank 1 for ratiobetween fault current and loadcurrent

SCEFRFLO.1.1 PhV Flt anglePhA

Record data of bank 1 forphase A voltage angle duringfault

SCEFRFLO.1.1 PhV Flt anglePhB

Record data of bank 1 forphase B voltage angle duringfault

SCEFRFLO.1.1 PhV Flt anglePhC

Record data of bank 1 forphase C voltage angle duringfault

SCEFRFLO.1.1 PhV Flt valuePhA

Record data of bank 1 forphase A voltage amplitudeduring fault

SCEFRFLO.1.1 PhV Flt valuePhB

Record data of bank 1 forphase B voltage amplitudeduring fault

SCEFRFLO.1.1 PhV Flt valuePhC

Record data of bank 1 forphase C voltage amplitudeduring fault

SCEFRFLO.1.1 PhV Pre anglePhA

Record data of bank 1 forphase A pre-fault voltage angle

SCEFRFLO.1.1 PhV Pre anglePhB

Record data of bank 1 forphase B pre-fault voltage angle

SCEFRFLO.1.1 PhV Pre anglePhC

Record data of bank 1 forphase C pre-fault voltage angle

SCEFRFLO.1.1 PhV Pre valuePhA

Record data of bank 1 forphase A pre-fault voltageamplitude

SCEFRFLO.1.1 PhV Pre valuePhB

Record data of bank 1 forphase B pre-fault voltageamplitude

SCEFRFLO.1.1 PhV Pre valuePhC

Record data of bank 1 forphase C pre-fault voltageamplitude

SCEFRFLO.1.1 RFRecord data of bank 1 for faultresistance

SCEFRFLO.1.1 RFLOOPRecord data of bank 1 for faultloop resistance

SCEFRFLO.1.1 S_CALCRecord data of bank 1 forequivalent load distance

SCEFRFLO.1.1 XC0F_CALC

Record data bank1 feederphase-to-earth capacitivereactance





SCEFRFLO.1.1 XFLOOPRecord data of bank 1 for faultloop reactance

SCEFRFLO.1.2 A Flt angle PhA






























































SCEFRFLO.1.3 A Flt angle PhA


























Binary inputs SCEFRFLO.1.TRIGG_OUTSignal indicating functiontriggering

SCEFRFLO.1.1 ALARMRecord data of bank 1 for alarmsignal



Frequency gradient (DAPFRC) Binary inputs DAPFRC.1.STARTStart signal for frequencygradient

DAPFRC.1.OPERATEOperate signal for frequencygradient

DAPFRC.1.LOWAMPL_BLKDBlocking indication due to lowamplitude.

Overfrequency (DAPTOF) Binary inputs DAPTOF.1.STARTStart signal for overfrequencyprotection

DAPTOF.1.OPERATEOperate signal foroverfrequency protection

DAPTOF.1.LOWAMPL_BLKDBlocking indication due to lowamplitude.

Underfrequency (DAPTUF) Binary inputs DAPTUF.1.STARTStart signal for underfrequencyprotection

DAPTUF.1.OPERATEOperate signal forunderfrequency protection

DAPTUF.1.LOWAMPL_BLKDBlocking indication due to lowamplitude.

DAPTUF.1.RESTORERestore signal for load restoringpurposes.





Load shedding (LSHDPFRQ) Binary inputs LSHDPFRQ.1.ST_FRQPick-Up signal for underfrequency detection

LSHDPFRQ.1.ST_FRGPick-Up signal for high df/dtdetection

LSHDPFRQ.1.STARTGeneral start. Under frequencyor high df/dt detected

LSHDPFRQ.1.RESTORERestore signal for load restoringpurposes

LSHDPFRQ.1.ST_RESTRestore frequency attained andrestore timer started

LSHDPFRQ.1.LOWAMPL_BLKD

Signal indicating internalblocking due to low amplitude

LSHDPFRQ.1.OPR_FRQOperate signal for underfrequency

LSHDPFRQ.1.OPR_FRG Operate signal for high df/dt

LSHDPFRQ.1.OPERATE Operation of load shedding

Circuit breaker (DAXCBR) Binary inputs DAXCBR.1.UPD_BLKDThe update of positionindication is blocked

DAXCBR.1.CLOSEPOS Apparatus closed position

DAXCBR.1.OPENPOS Apparatus open position

DAXCBR.1.OP_BLKDIndication that the function isblocked for open commands

DAXCBR.1.CL_BLKDIndication that the function isblocked for close commands

Counters DAXCBR.1.CNT_VALThe value of the operationcounter

Double bit indications DAXCBR.1.POSITION Apparatus position indication

Autorecloser (DARREC) Analog inputs DARREC.1.PROT_DISAA word type signal for disablingprotection functions

DARREC.1.SHOT_PTR Shot pointer value

Binary inputs DARREC.1.OPEN_CBOpen command for circuitbreaker

DARREC.1.CLOSE_CBClose (reclose) command forcircuit breaker

DARREC.1.CMD_WAIT Wait for master command

DARREC.1.INPROReclosing shot in progress,activated during dead time

DARREC.1.LOCKEDSignal indicating that AR islocked out

DARREC.1.PROT_CRD

A signal for coordinationbetween the AR and theprotection

DARREC.1.UNSUC_RECLIndicates an unsuccessfulreclosing sequence

DARREC.1.FRQ_OPR_ALFrequent operation counteralarm

DARREC.1.AR_ON Autoreclosing allowed





DARREC.1.READYIndicates that the AR is readyfor a new sequence

DARREC.1.ACTIVEReclosing sequence is inprogress

DARREC.1.INPRO_1Reclosing shot in progress,shot 1





DARREC.1.DISCR_INPROSignal indicating thatdiscrimination time is inprogress

DARREC.1.CUTOUT_INPROSignal indicating that cut-outtime is in progress

DARREC.1.UNSUC_CBIndicates an unsuccessful CBclosing

DARREC.1.MAN_CB_CLIndicates CB manual closingduring reclosing sequence

DARREC.1.SOTF Switch-onto-fault

Counters DARREC.1.FRQ_OPR_CNT Frequent operation counter

DARREC.1.CNT_SHOT1Resetable operation counter,shot 1





DARREC.1.COUNTERResetable operation counter, allshots

Synchrocheck (SYNCRSYN) Analog inputs SYNCRSYN.1.U_DIFF_MEAS Calculated difference in voltage

SYNCRSYN.1.FR_DIFF_MEASCalculated difference infrequency

SYNCRSYN.1.PH_DIFF_MEASCalculated difference of phaseangle

Binary inputs SYNCRSYN.1.AUTO_REL Automatic release

SYNCRSYN.1.AU_ENERG_OK Automatic energizing check OK

SYNCRSYN.1.MAN_REL Manual release

SYNCRSYN.1.MAN_ENERG_OK Manual energizing check OK

SYNCRSYN.1.SYN_OK Synchronizing OK output




Function name Signal type Signal name Description SYNCRSYN.1.SYN_INPRO Synchronizing in progress

SYNCRSYN.1.SYN_FAIL Synchronizing failed

SYNCRSYN.1.B1_SEL Bus1 selected

SYNCRSYN.1.B2_SEL Bus2 selected

SYNCRSYN.1.LN1_SEL Line1 selected

SYNCRSYN.1.LN2_SEL Line2 selected

Bay control (QCCBAY) Binary inputs QCCBAY.1.UPD_BLKD Update of position is blocked

QCCBAY.1.CMD_BLKDFunction is blocked forcommands

QCCBAY.1.LOC Local operation allowed

QCCBAY.1.REM Remote operation allowed

Disconnector (DAXSWI) Binary inputs DAXSWI.1.OP_BLKDIndication that the function isblocked for open commands

DAXSWI.1.CL_BLKDIndication that the function isblocked for close commands

DAXSWI.1.UPD_BLKDThe update of positionindication is blocked

DAXSWI.1.OPENPOS Apparatus open position

DAXSWI.1.CLOSEPOS Apparatus closed position

Counters DAXSWI.1.CNT_VALThe value of the operationcounter

Double bit indications DAXSWI.1.POSITION Apparatus position indication

Circuit breaker / disconnectorcontrol (GNRLCSWI) Analog inputs GNRLCSWI.1.L_CAUSE

Latest value of the errorindication during command

Binary inputs GNRLCSWI.1.CMD_BLKD Commands are blocked

GNRLCSWI.1.SELECTED Commands are blocked

Binary outputs GNRLCSWI.1.CLOSE_CMDClose command parameter forDNP3 protocol

GNRLCSWI.1.OPEN_CMDOpen command parameter forDNP3 protocol

Double bit indications GNRLCSWI.1.POSITION Position indication

Interlocking (interface) (SCILO) Binary inputs SCILO.1.EN_CLOSE

Close operation at open orintermediate or bad position isenabled

SCILO.1.EN_OPEN

Open operation at closed orintermediate or bad position isenabled

Trip circuit supervision(TCSSCBR) Binary inputs TCSSCBR.1.ALARM Trip circuit fault indication

Tripping logic (TRPPTRC) Binary inputs TRPPTRC.1.CL_LKOUTCircuit breaker lockout output(set until reset)

TRPPTRC.1.TRIP General trip output signal

Fusefailure supervision(SEQRFUF) Binary inputs SEQRFUF.1.FUSEF_3PH Three-phase start of function

SEQRFUF.1.FUSEF_U General start of function





SEQRFUF.1.FUSEF_ZStart of current and voltagecontrolled function

Circuit breaker conditionmonitoring (SSCBR) Binary inputs SSCBR.1.CB_LIFE_ALM

Remaining life of CB reduced toLife alarm level

SSCBR.1.CLOSEPOS CB is in closed position

SSCBR.1.INVALIDPOSCB is in invalid position (notpositively open or closed)

SSCBR.1.IPOW_ALMAccumulated currents power(Iyt),exceeded alarm limit

SSCBR.1.IPOW_LOAccumulated currents power(Iyt),exceeded lockout limit

SSCBR.1.MON_ALMCB 'not operated for long time'alarm

SSCBR.1.OPENPOS CB is in open position

SSCBR.1.OPR_ALMNumber of CB operationsexceeds alarm limit

SSCBR.1.OPR_LONumber of CB operationsexceeds lockout limit

SSCBR.1.PRES_ALM Pressure below alarm level

SSCBR.1.PRES_LO Pressure below lockout level

SSCBR.1.SPR_CHR_ALMSpring charging time hascrossed the set value

SSCBR.1.TRV_T_CL_ALMCB close travel time exceededset value

SSCBR.1.TRV_T_OP_ALMCB open travel time exceededset value

Counters SSCBR.1.NO_OPR Number of CB operation cycle

Station battery supervision(SPVNZBAT) Binary inputs SPVNZBAT.1.AL_UHIGH

Alarm when voltage hasexceeded higher limit for a settime

SPVNZBAT.1.AL_ULOWAlarm when voltage has beenbelow lower limit for a set time

SPVNZBAT.1.ST_ULOWStart signal when batteryvoltage drops below lower limit

SPVNZBAT.1.ST_UHIGHStart signal when batteryvoltage exceeds upper limit

Automatic switch onto faultlogic (CVRSOF) Binary inputs CVRSOF.1.OPERATE Operate

Local accelerat. logic(DSTPLAL) Binary inputs DSTPLAL.1.OPR_LOSSLOAD Operate by loss of load

DSTPLAL.1.OPR_Z_EXTN Operate by zone extension

Scheme communic. logic(DSOCPSCH) Binary inputs DSOCPSCH.1.CS Carrier Send signal

DSOCPSCH.1.LCG Loss of carrier guard signal

DSOCPSCH.1.OPERATE Trip output

DSOCPSCH.1.PRORXCarrier signal received ormissing carrier guard signal




Function name Signal type Signal name DescriptionCurrent reversal and WEI logic(CRWPSCH) Binary inputs CRWPSCH.1.OPR_WEI_C

Operation of WEI logic in phaseC

CRWPSCH.1.OPR_WEI_BOperation of WEI logic in phaseB

CRWPSCH.1.OPR_WEI_AOperation of WEI logic in phaseA

CRWPSCH.1.OPR_WEI Operation of WEI logic

CRWPSCH.1.ECHO Carrier send by WEI logic

CRWPSCH.1.CRPOR Carrier signal receivedfrom remote end

Energy monitoring (EPDMMTR) Analog inputs EPDMMTR.1.EAFDMD_BCRLast forward active energyvalue for set interval (BCR)

EPDMMTR.1.EARDMD_BCRLast reverse active energyvalue for set interval (BCR)

EPDMMTR.1.ERFDMD_BCRLast forward reactive energyvalue for set interval (BCR)

EPDMMTR.1.ERRDMD_BCRLast reverse reactive energyvalue for set interval (BCR)

EPDMMTR.1.EAFACMAccumulated forward activeenergy value in Ws

EPDMMTR.1.EARACMAccumulated reverse activeenergy value in Ws

EPDMMTR.1.ERFACMAccumulated forward reactiveenergy value in VArS

EPDMMTR.1.ERRACMAccumulated reverse reactiveenergy value in VArS

EPDMMTR.1.PAFDMDLast forward active powerdemand value for set interval

EPDMMTR.1.PARDMDLast reverse active powerdemand value for set interval

EPDMMTR.1.PRFDMDLast forward reactive powerdemand value for set interval

EPDMMTR.1.PRRDMDLast reverse reactive powerdemand value for set interval

EPDMMTR.1.MAXPAFDMDMaximum forward active powerdemand value for set interval

EPDMMTR.1.MAXPARDMDMaximum reverse active powerdemand value for set interval

EPDMMTR.1.MAXPRFDMD

Maximum forward reactivepower demand value for setinterval

EPDMMTR.1.MAXPRRDMD

Maximum reverse reactivepower demand value for setinterval

Binary inputs EPDMMTR.1.EAFALAlarm for active forward energyexceed limit in set interval

EPDMMTR.1.EARALAlarm for active reverse energyexceed limit in set interval





EPDMMTR.1.ERFAL

Alarm for reactive forwardenergy exceed limit in setinterval

EPDMMTR.1.ERRAL

Alarm for reactive reverseenergy exceed limit in setinterval

Transformer differentialprotection of 2 windingtransformers (TR2PTDF) Binary inputs TR2PTDF.1.OPERATE

Operate signal, combined (allphases, both stages)

TR2PTDF.1.OPR_A Operate signal phase A

TR2PTDF.1.OPR_B Operate signal phase B

TR2PTDF.1.OPR_C Operate signal phase C

TR2PTDF.1.BLKD2HStatus from 2nd harmonicrestraint block, combined

TR2PTDF.1.BLKD5HStatus from 5th harmonicrestraint blocking, combined

TR2PTDF.1.BLKDWAVStatus from waveform blocking,combined

TR2PTDF.1.OPR_HSOperate signal from high set(instantaneous) stage

TR2PTDF.1.OPR_LSOperate signal from low set(biased) stage

TR2PTDF.1.BLKD2H_AStatus from 2nd harmonicrestraint block, phase A

TR2PTDF.1.BLKD2H_BStatus from 2nd harmonicrestraint block, phase B

TR2PTDF.1.BLKD2H_CStatus from 2nd harmonicrestraint block, phase C

TR2PTDF.1.BLKD5H_AStatus from 5th harmonicrestraint blocking, phase A

TR2PTDF.1.BLKD5H_BStatus from 5th harmonicrestraint blocking, phase B

TR2PTDF.1.BLKD5H_CStatus from 5th harmonicrestraint blocking, phase C

TR2PTDF.1.BLKDWAV_AStatus from waveform blocking,phase A

TR2PTDF.1.BLKDWAV_BStatus from waveform blocking,phase B

TR2PTDF.1.BLKDWAV_CStatus from waveform blocking,phase C

Three-phase thermal overloadfor transformers (T2PTTR) Binary inputs T2PTTR.1.BLK_CLOSE

Thermal overload indicator. Toinhibite reclose.

T2PTTR.1.ALARM

The calculated temperature isover Alarm level Temperaturelimit

T2PTTR.1.START

Signal indicating current thatwill raise temperature aboveoperate level if prolonged

T2PTTR.1.OPERATE Operate signal




Function name Signal type Signal name DescriptionThree-phase thermal overloadfor motors (MPTTR) Binary inputs MPTTR.1.BLK_RESTART

Thermal overload indicator, toinhibit restart

MPTTR.1.ALARMAlarm signal when thermal loadexceeds alarm setting

MPTTR.1.OPERATEOperate signal when thermalload exceeds operate setting

Stabilised restricted earth-fault(LREFPNDF) Binary inputs LREFPNDF.1.START

Low impedance restricted earth-fault protection start

LREFPNDF.1.OPERATELow impedance restricted earth-fault protection operate

LREFPNDF.1.BLK2H

Signal to indicate secondharmonic blocking when thesecond harmonic has beenenabled

Emergency start (ESMGAPC) Binary inputs ESMGAPC.1.ST_EMERG_ENA Emergency start signal

Motor startup supervision(STTPMSU) Binary inputs STTPMSU.1.MOT_START

Signal to show that motorstartup is in progress

STTPMSU.1.OPR_IITOperate/trip signal for thermalstress.

STTPMSU.1.LOCK_STARTLock out condition for restart ofmotor.

STTPMSU.1.OPR_STALLOperate/trip signal for stallingprotection.

Counters STTPMSU.1.START_CNTNumber of motor start-upsoccurred

Phase reversal (PREVPTOC) Binary inputs PREVPTOC.1.START Started signal

PREVPTOC.1.OPERATE Operated signal

Loss of load supervision(LOFLPTUC) Binary inputs LOFLPTUC.1.START Loss of load protection started

LOFLPTUC.1.OPERATE Loss of load protection operated

Motor stall protection(JAMPTOC) Binary inputs JAMPTOC.1.START Started signal

JAMPTOC.1.OPERATE Operated

Negative-phase-sequence timeovercurrent protection(MNSPTOC) Binary inputs MNSPTOC.1.START Started

MNSPTOC.1.OPERATE Operated

MNSPTOC.1.BLK_RESTARTSignal for blocking reconnectionof an overheated machine

Tap position indication(TPOSSLTC) Analog inputs TPOSSLTC.1.TAP_POS Tap position value as integer

Binary inputs TPOSSLTC.1.TAP_POS_IV TAP_POS invalidity status

Three-phase inrush currentdetector (INRPHAR) Binary inputs INRPHAR.1.BLK2H Second harmonic based block

INRPHAR.1.BLK2H_ASecond harmonic based block,phase A

INRPHAR.1.BLK2H_BSecond harmonic based block,phase B





INRPHAR.1.BLK2H_CSecond harmonic based block,phase C

Transient/intermittent earth-fault(INTRPTEF) Binary inputs INTRPTEF.1.START Start signal

INTRPTEF.1.OPERATE Operate signal

INTRPTEF.1.BLK_EFBlock signal for EF to indicateopposite direction peaks

Versatile Switch (VSGGIO) Binary inputs VSGGIO.1.POS1Position 1 indication, logicalsignal

VSGGIO.1.POS2Position 2 indication, logicalsignal

Double bit indications VSGGIO.1.POSITION

Wattmetric earth-fault(WPWDE) Analog inputs WPWDE.1.FAULT_DIR

Wattmetric directional earth-fault protection, fault direction

Binary inputs WPWDE.1.STARTWattmetric directional earth-fault protection, start

WPWDE.1.OPERATEWattmetric directional earth-fault protection, directional trip

Earth-fault admittance(EFPADM) Analog inputs EFPADM.1.FAULT_DIR

Earth-fault admittanceprotection, fault direction

EFPADM.1.CONFLICT

Earth-fault admittanceprotection, overlapingadmittance boundary linesettings

EFPADM.1.1 FAULT_DIR

Earth-fault admittanceprotection, record data of bank1 for detected fault direction

EFPADM.1.1 COND_RES (Go)

Earth-fault admittanceprotection, record data of bank1 for real part of neutraladmittance

EFPADM.1.1 SUS_RES (Bo)

Earth-fault admittanceprotection, record data of bank1 for imaginary part of neutraladmittance

EFPADM.1.1 I_AMPL_RES PreFlt

Earth-fault admittanceprotection, record data of bank1 for magnitude of pre-faultresidual current

EFPADM.1.1 I_ANGL_RES PreFlt

Earth-fault admittanceprotection, record data of bank1 for angle of pre-fault residualcurrent

EFPADM.1.1 U_AMPL_RESPre Flt

Earth-fault admittanceprotection, record data of bank1 for magnitude of pre-faultresidual voltage

EFPADM.1.1 U_ANGL_RESPre Flt

Earth-fault admittanceprotection, record data of bank1 for angle of pre-fault residualvoltage





EFPADM.1.1 I_AMPL_RES fault

Earth-fault admittanceprotection, record data of bank1 for magnitude of fault-stateresidual current

EFPADM.1.1 I_ANGL_RES fault

Earth-fault admittanceprotection, record data of bank1 for angle of fault-stateresidual current

EFPADM.1 U_AMPL_RES fault

Earth-fault admittanceprotection, record data of bank1 for magnitude of fault-stateresidual voltage

EFPADM.1.1 U_ANGL_RESfault

Earth-fault admittanceprotection, record data of bank1 for angle of fault-stateresidual voltage

EFPADM.1.1 START_DUR

Earth-fault admittanceprotection, record data of bank1 for ratio of started time /operate time























EFPADM.1.2 U_AMPL_RESfault
























EFPADM.1.3 U_AMPL_RESfault










Binary inputs EFPADM.1.STARTEarth-fault admittanceprotection, start

EFPADM.1.OPERATEEarth-fault admittanceprotection, directional trip

Under excitation protection(UEXPDIS) Binary inputs UEXPDIS.1.START Under excitation protection, start

UEXPDIS.1.OPERATE Under excitation protection, trip

Rotor EF protection(MREFPTOC) Binary inputs MREFPTOC.1.START Rotor EF protection, start

MREFPTOC.1.OPERATE Rotor EF protection, trip

MREFPTOC.1.ALARM Rotor EF protection, alarm

Voltage sag, swell andinterruption monitoring(PHQVVR) Analog inputs PHQVVR.1.1 Variation type

Voltage sag, swell andinterruption monitoring, Voltagevariation type

PHQVVR.1.1 Varn A PhA

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase Acurrent magnitude

PHQVVR.1.1 Varn A PhB

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase Bcurrent magnitude

PHQVVR.1.1 Varn A PhC

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase Ccurrent magnitude

PHQVVR.1.1 Varn Dur PhA

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase A orAB variation duration

PHQVVR.1.1 Varn Dur PhB

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase B orBC variation duration

PHQVVR.1.1 Varn Dur PhC

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase C orCA variation duration

PHQVVR.1.1 Varn V PhA

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase A orAB voltage magnitude

PHQVVR.1.1 Varn V PhB

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase B orBC voltage magnitude





PHQVVR.1.1 Varn V PhC

Voltage sag, swell andinterruption monitoring, Recorddata of bank 1 for phase C orCA voltage magnitude

PHQVVR.1.2 Variation type




















PHQVVR.1.3 Variation type
























Binary inputs PHQVVR.INTST

Voltage sag, swell andinterruption monitoring, Voltageinterruption active

PHQVVR.INTOPR

Voltage sag, swell andinterruption monitoring, Voltageinterruption detected

PHQVVR.DIPST

Voltage sag, swell andinterruption monitoring, Voltagedip active

PHQVVR.DIPOPR

Voltage sag, swell andinterruption monitoring, Voltagedip detected

PHQVVR.DIPSWELLOPR

Voltage sag, swell andinterruption monitoring,Concurrent voltage dip andvoltage swell detected

PHQVVR.SWELLST

Voltage sag, swell andinterruption monitoring, Voltageswell active

PHQVVR.SWELLOPR

Voltage sag, swell andinterruption monitoring, Voltageswell detected

PHQVVR.ST_A

Voltage sag, swell andinterruption monitoring, Voltagevariation present on phase A orAB





PHQVVR.ST_B

Voltage sag, swell andinterruption monitoring, Voltagevariation present on phase B orBC

PHQVVR.ST_C

Voltage sag, swell andinterruption monitoring, Voltagevariation present on phase C orCA

Counters PHQVVR.1.INTCNT

Voltage sag, swell andinterruption monitoring, Counterfor detected voltageinterruptions

PHQVVR.1.DIPCNT

Voltage sag, swell andinterruption monitoring, Counterfor detected voltage dips

PHQVVR.1.SWELLCNT

Voltage sag, swell andinterruption monitoring, Counterfor detected voltage swells

Voltage Imbalance monitoringfunction (VSQVUB) Analog inputs VSQVUB.1.10MIN_MN_UNB

Voltage Imbalance monitoringfunction, Sliding 10 minutesmean value of voltageunbalance

VSQVUB.1.3S_MN_UNB

Voltage Imbalance monitoringfunction, Sliding 3 second meanvalue of voltage unbalance

VSQVUB.1.1 AL_UNB_VAL

Voltage Imbalance monitoringfunction, Record data of bank1for maximum 3 sec voltageunbalance





Binary inputs VSQVUB.1.MN_UNB_AL

Voltage Imbalance monitoringfunction, Alarm active when 3sec voltage unbalance exceedsthe limit

High-impedance or Flux-balance based differentialprotection (MHZPDIF) Binary inputs MHZPDIF.1.START

High-impedance or Flux-balance based differentialprotection for machines, start

MHZPDIF.1.ST_A

High-impedance or Flux-balance based differentialprotection for machines, startphase A

MHZPDIF.1.ST_B

High-impedance or Flux-balance based differentialprotection for machines, startphase B





MHZPDIF.1.ST_C

High-impedance or Flux-balance based differentialprotection for machines, startphase C

MHZPDIF.1.OPERATE

High-impedance or Flux-balance based differentialprotection for machines, trip

MHZPDIF.1.OPR_A

High-impedance or Flux-balance based differentialprotection for machines, tripphase A

MHZPDIF.1.OPR_B

High-impedance or Flux-balance based differentialprotection for machines, tripphase B

MHZPDIF.1.OPR_C

High-impedance or Flux-balance based differentialprotection for machines, tripphase C

Voltage control (OLATCC) Analog inputs OLATCC.1.TIMER_STSVoltage control, Timer T1, T2 orfast lower timer active

OLATCC.1.OPR_MODE_STS

Voltage control, The actingoperation mode of the functionblock

OLATCC.1.BLK_STATUS

Voltage control, Bit-codedoutput showing the blockingstatus for the next operation

OLATCC.1.ALARM_REASVoltage control, Status andreason for alarm

OLATCC.1.FAIL_FLLW Voltage control, Failed followers

OLATCC.1.TR0_I_ AMPLVoltage control, Currentmagnitude from own transformer

OLATCC.1.TR0_I_ ANGLVoltage control, Current phaseangle from own transformer

OLATCC.1.U_MEASVoltage control, Phase-to-phase voltage , average filtered

OLATCC.1.ANGL_UA_IA

Voltage control, Measuredangle value between phase Avoltage and current

OLATCC.1.U_CTLVoltage control, Controlvoltage, Up, target voltage level

OLATCC.1.UD_CTL

Voltage control, Voltagedifference between measuredand control Voltage

OLATCC.1.I_CIR

Voltage control, Calculatedcirculating current - calculatedin operation modes NRP andMCC

OLATCC.1.LDCVoltage control, Calculated linedrop compensation





OLATCC.1.FLLW1_CTL

Voltage control, Lower/Raisefor follower 1 in the Master/Follower mode

OLATCC.1.FLLW2_CTL


OLATCC.1.FLLW3_CTL


OLATCC.1.TAP_POSVoltage control, tap changerposition

Binary inputs OLATCC.1.ALARM Voltage control, Alarm status

OLATCC.1.RAISE _OWNVoltage control, Raisecommand for own transformer

OLATCC.1.LOWER_OWNVoltage control, Lowercommand for own transformer

OLATCC.1.PAR_FAILVoltage control, Parallel failuredetected

OLATCC.1.PARALLELVoltage control, Parallel modeor not

OLATCC.1.AUTOVoltage control, Actingautomatic/manual

OLATCC.1.BLKD_I_LODVoltage control, Indication ofload current blocking

OLATCC.1.BLKD_U_UNVoltage control, Indication ofunder voltage blocking

OLATCC.1.BLKD_I_CIRVoltage control, Indication ofhigh circulating current blocking

OLATCC.1.BLKD_LTCBLKVoltage control, Indication ofexternal blocking

OLATCC.1.BLKD_RAISE

Voltage control, Indication ofextreme raise position causedblocking

OLATCC.1.BLKD_LOWER

Voltage control, Indication ofextreme lower position causedblocking

OLATCC.1.RNBK_U_OVVoltage control, Indication ofrunback raise voltage

OLATCC.1.LTC_BLOCK

Voltage control, External signalfor blocking of automaticoperation, status of inputLTC_BLOCK

OLATCC.1.RSVVoltage control, RSV inputstatus

Counters OLATCC.1.OPR_CNT

Voltage control, Total numberof commands given, manualand automatic

OLATCC.1.OP_TM_NUM_H

Voltage control, Number ofcontrols for own tap changerduring last hour




Function name Signal type Signal name DescriptionReverse power/directionaloverpower protection(DOPPDPR) Analog inputs DOPPDPR.1.S

Reverse power/directionaloverpower protection, apparentpower

DOPPDPR.1.Q

Reverse power/directionaloverpower protectionn, reactivepower

DOPPDPR.1.P

Reverse power/directionaloverpower protection, activepower

DOPPDPR.1.PF_ANGL

Reverse power/directionaloverpower protection, Anglebetween apparent power andactive power

Binary inputs DOPPDPR.1.STARTReverse power/directionaloverpower protection, start

DOPPDPR.1.OPERATEReverse power/directionaloverpower protection, trip

Directional underpowerprotection (DUPPDPR) Analog inputs DUPPDPR.1.S

Directional underpowerprotection, apparent power

DUPPDPR.1.QDirectional underpowerprotection, reactive power

DUPPDPR.1.PDirectional underpowerprotection, active power

DUPPDPR.1.PF_ANGL

Directional underpowerprotection, Angle betweenapparent power and activepower

Binary inputs DUPPDPR.1.STARTDirectional underpowerprotection, start

DUPPDPR.1.OPERATEDirectional underpowerprotection, operate

Three-phase underimpedanceprotection (UZPDIS) Binary inputs UZPDIS.1.START

Three-phase underimpedanceprotection, start

UZPDIS.1.OPERATEThree-phase underimpedanceprotection, trip

Machine differential protection(MPDIF) Binary inputs MPDIF.1.OPERATE

Machine differential proteciton,Operate signal, combined (allphases, both stages)

MPDIF.1.OPR_AMachine differential proteciton,Operate signal, Phase A

MPDIF.1.OPR_BMachine differential proteciton,Operate signal, Phase B

MPDIF.1.OPR_CMachine differential proteciton,Operate signal, Phase C

MPDIF.1.INT_BLKD

Machine differential proteciton,Protection internally blocked,combined

MPDIF.1.INT_BLKD_A

Machine differential proteciton,Protection internally blocked,Phase A





MPDIF.1.INT_BLKD_B

Machine differential proteciton,Protection internally blocked,Phase B

MPDIF.1.INT_BLKD_C

Machine differential proteciton,Protection internally blocked,Phase C

MPDIF.1.OPR_HS

Machine differential proteciton,Operate signal from high set(instantaneous) stage

MPDIF.1.OPR_LS

Machine differential proteciton,Operate signal from low set(biased) stage

Three-phase underimpedanceprotection (OEPVPH) Binary inputs OEPVPH.1.START

Three-phase underimpedanceprotection, start

OEPVPH.1.OPERATEThree-phase underimpedanceprotection, trip

OEPVPH.1.BLK_RESTARTThree-phase underimpedanceprotection, block restart

OEPVPH.1.COOL_ACTIVEThree-phase underimpedanceprotection, cooling active

Voltage-dependent overcurrentprotection (PHPVOC) Binary inputs PHPVOC.1.OPERATE

Voltage-dependent overcurrentprotection, Trip

PHPVOC.1.OPR_AVoltage-dependent overcurrentprotection, Trip, Phase A

PHPVOC.1.OPR_BVoltage-dependent overcurrentprotection, Trip, Phase B

PHPVOC.1.OPR_CVoltage-dependent overcurrentprotection, Trip, Phase C

PHPVOC.1.STARTVoltage dependent over currentprotection, Start

PHPVOC.1.ST_AVoltage-dependent overcurrentprotection, Start, Phase A

PHPVOC.1.ST_BVoltage-dependent overcurrentprotection, Start, Phase B

PHPVOC.1.ST_CVoltage-dependent overcurrentprotection, Start, Phase C

Third harmonic-based statorearth-fault protection(H3EFPSEF) Binary inputs H3EFPSEF.1.OPERATE

Third harmonic based statorearth fault protection, Trip

H3EFPSEF.1.STARTThird harmonic-based statorearth-fault protection, Start

H3EFPSEF.1.INT_BLKD

Third harmonic-based statorearth-fault protection, Internallyblocked

Current harmonics (CMHAI) Analog inputs CMHAI.1.NO_ALM_MN_H

Current harmonics, Highestharmonic that exceeded itsalarm limit

CMHAI.1.MONITORED_PH

Current harmonics, Indicatesthe actual phase monitored1=Ph A, 2=Ph B, 3=Ph C





Binary inputs CMHAI.1.ALM_MN_TDD

Current harmonics, Alarmsignal when TDD value isgreater than limit

CMHAI.1.ALM_MN_THD

Current harmonics, Alarmsignal when THD value isgreater than limit

CMHAI.1.ALM_MN_H

Current harmonics, Alarmsignal when harmonic RMSvalue is greater than limit

Phase-to-earth voltageharmonics (VPHMHAI) Analog inputs VPHMHAI.1.NO_ALM_MN_H

Phase-to-earth voltageharmonics, Highest harmonicthat exceeded its alarm limit

VPHMHAI.1.MONITORED_PH

Phase-to-earth voltageharmonics, Indicates the actualphase monitored 1=Ph A, 2=PhB, 3=Ph C

Binary inputs VPHMHAI.1.ALM_MN_TDD

Phase-to-earth voltageharmonics, Alarm signal whenTDD value is greater than limit

VPHMHAI.1.ALM_MN_THD

Phase-to-earth voltageharmonics, Alarm signal whenTHD value is greater than limit

VPHMHAI.1.ALM_MN_H

Phase-to-earth voltageharmonics, Alarm signal whenharmonic RMS value is greaterthan limit

Phase-to-phase voltageharmonics (VPPMHAI) Analog inputs VPPMHAI.1.NO_ALM_MN_H

Phase-to-phase voltageharmonics, Highest harmonicthat exceeded its alarm limit

VPPMHAI.1.MONITORED_PH

Phase-to-phase voltageharmonics, Indicates the actualphase monitored 1=Ph A, 2=PhB, 3=Ph C

Binary inputs VPPMHAI.1.ALM_MN_TDD

Phase-to-phase voltageharmonics, Alarm signal whenTDD value is greater than limit

VPPMHAI.1.ALM_MN_THD

Phase-to-phase voltageharmonics, Alarm signal whenTHD value is greater than limit

VPPMHAI.1.ALM_MN_H

Phase-to-phase voltageharmonics, Alarm signal whenharmonic RMS value is greaterthan limit

Multipurpose analogueprotection function (MAPGAPC) Binary inputs MAPGAPC.1.START

Multipurpose analogueprotection function, start

MAPGAPC.1.OPERATEMultipurpose analogueprotection function, trip

Selector switch (SLGGIO) Analog inputs SLGGIO.1.SWPOSNSelector switch, switch positionas integer

Generic measured value(MVGGIO) Analog inputs MVGGIO.1.IN

Generic measured value,analog input value

Single point indication(SPGGIO) Analog inputs SPGGIO.1.IN

Single point indication, inputstatus



Section 3 DNP3 protocol implementation

3.1 DNP3 device profile

The following table provides a device profile document in the standard formatdefined in the DNP3 Subset Definitions Document. While it is referred to in theDNP3 Subset Definitions as a document, it is in fact a table, and only a componentof a total interoperability guide. The table, in combination with the Implementationtable and the point list tables, provides a complete configuration/interoperabilityguide for communicating with a device.

Table 2: Device profile document

DNP3 device profile documentVendor name: ABB Oy

Device name: 630 series IED

Highest DNP level supported: Device function:

For requests: Level + ○ Master

For responses: Level + ● Slave

Notable objects, functions and/or qualifiers supported in addition to the highest DNP levels supported (the complete list is described inthe attached table):For static (non-change event) object requests, request qualifier codes 07 and 08 (limited quantity) and 17 and 28 (index) are supported.Static object requests sent with qualifiers 07 or 08 are responded with qualifiers 00 or 01.16-bit, 32-bit and Floating point analog change events with time may be requested.Floating point analog output status and output block objects 40 and 41 are not supported.Sequential file transfer, object 70, variations 2 through 7, are not supported.Octet string and string event objects 110 and 111 are not supported.Virtual terminal output and event objects 112 and 113 are not supported.Device attribute object 0 is not supported.Data set objects 85-88 are not supported.

Maximum data link frame size (octets): Maximum application fragment size (octets):

Transmitted: 292 Transmitted: Configurable up to 2048(ApLayMaxTxSize for each master session)

Received: 292 Received: Configurable up to 2048(ApLayMaxRxSize for each Master session)

Maximum data link retries: Maximum application layer retries:

● None ● None

○ Fixed ○ Configurable

○ Configurable (0...65535)(DLinkRetries for each channel)

Requires data link layer confirmation:

○ Never

○ Always

○ Sometimes


1MRS756790 C Section 3DNP3 protocol implementation


DNP3 device profile document ● Configurable as: only when reporting event data

(DLinkConfirm for each channel)

Requires application layer confirmation:

○ Never

○ Always

○ When reporting event data (slave devices only)

○ When sending multi-fragment responses (slave devices only)

○ Sometimes

● Configurable as: "Only when reporting event data" or "When reporting event data or multi-fragment messages."(ConfMultiFrag for each master session)

Timeouts while waiting for:

Data linkconfirm:(tDLinkTimeout onDNP3Channelin PST)

● None ○ Fixed at ____ ○ Variable ○ Configurable

Completeappl.fragment:

○ None ○ Fixed at ____ ○ Variable ○ Configurable

Applicationconfirm:(tApplConfTout onDNP3Masterin PST)

○ None ○ Fixed at ____ ○ Variable ● Configurable

Completeappl.response:

● None ○ Fixed at ____ ○ Variable ○ Configurable

Others: • Transmission delay, configurable (tRxToTxMinDel for each channel).• Selecting/Operating arm timeout, configurable (tSelectTimeout for each master session).• Need time interval, configurable (tSynchTimeout for each master session).• Unsolicited notification delay, configurable (tUREvBufTout1, tUREvBufTout2, tUREvBufTout3 for each master

session).• Unsolicited response retry delay, configurable (tURRetryDelay for each master session).• Unsolicited offline iInterval, configurable (tUROfflRtryDel for each master session).

Change events in the IED are generated by the device’s internal event system; they are not polled at a protocol-specificscan rate. The periodicity for each point depends on the point’s data rate in the IED.Binary change event scan period – see aboveDouble bit change event scan period – see aboveAnalog change event scan period – see aboveCounter change event scan period – see above

Sends/Executes Control Operations:

WRITE binaryoutputs

● Never ○ Always ○ Sometimes ○ Configurable

SELECT/OPERATE

○ Never ● Always ○ Sometimes ○ Configurable

DIRECTOPERATE

○ Never ○ Always ○ Sometimes ● Configurable

DIRECTOPERATE -NO ACK

○ Never ○ Always ○ Sometimes ● Configurable


Section 3 1MRS756790 CDNP3 protocol implementation


DNP3 device profile document

Count > 1 ○ Never ○ Always ● Sometimes ○ Configurable

Pulse on ○ Never ○ Always ● Sometimes ○ Configurable

Pulse off ○ Never ○ Always ● Sometimes ○ Configurable

Latch on ○ Never ○ Always ● Sometimes ○ Configurable

Latch off ○ Never ○ Always ● Sometimes ○ Configurable

Queue ● Never ○ Always ○ Sometimes ○ Configurable

Clear queue ● Never ○ Always ○ Sometimes ○ Configurable

Explanation of "Sometimes" above: Supported binary output control operations depend on the type of point. Please consult the binaryoutput point list description.

Reports binary input change events when no specific variationrequested:

Reports time-tagged binary input change events when no specificvariation requested:

○ Never ○ Never

○ Only when time-tagged ○ Binary input change with time

○ Only non-time-tagged ○ Binary input change with relative time

● Configurable to send one or the other(Obj2DefVar on DNP3Master)

● Configurable (Obj2DefVar on DNP3Master)

Sends unsolicited responses: Sends static data in unsolicited responses:

○ Never ● Never

● Configurable (UREnable onDNP3Master)

○ When device restarts

○ Only certain objects ○ When status flags change

○ Sometimes (attach explanation)

● ENABLE/DISABLE UNSOLICITEDfunction codes supported

No other options are permitted.

Default counter object/variation: Counters roll over at:

○ No counters reported ○ No counters reported

● Configurable (obj20DefVar andobj22DefVar in DNP3Master)

○ Configurable (attach explanation)

○ Default objectDefault variation:

○ 16 bits

○ Point-by-point list attached ● 32 bits

○ Other value: _______

○ Point-by-point list attached

Sends multi-fragment responses:

○ Yes

○ No

● Configurable (ApplMultFrgRes on DNP3Master)

Deadbanding is not performed in the DNP protocol stack. Any deadbanding is a property of the IED’s underlying data and is configuredthrough the IED configuration tools.

● = Selected,○ = Not selected



3.2 DNP3 implementation table

The following table identifies which object variations, function codes andqualifiers the IED supports in both request messages and in response messages. Forstatic (non-change event) objects, requests sent with qualifiers 00, 01, 06, 07 or 08are responded with qualifiers 00 or 01. Requests sent with qualifiers 17 or 28 areresponded with qualifiers 17 or 28. For change event objects, qualifiers 17 or 28are always responded.

Table 3: Implementation table

OBJECT REQUEST (Slave will parse) RESPONSE (Slave will respond with)Objectnumber

Variationnumber Description

Function codes(dec) Qualifier codes (hex)

Function codes(dec)

Qualifier codes(hex)

1 0 Binary input – anyvariation

1 (read)22 (assign class)

00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)

1 1(default)

1)

Binary input 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)

129 (response) 00, 01 (start-stop)17, 28 (index) 2)

1 2 Binary input with status 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)

129 (response) 00, 01 (start-stop)17, 28 (index)

2 1 Binary input changewithout time

1 (read) 06 (no range, or all)07, 08 (limited qty)

129 (response)130 (unsol. resp)

17, 28 (index)

2 2 Binary input changewith time



17, 28 (index)

2 3 Binary input changewith relative time



17, 28 (index)

3 0 Double bit input – anyvariation

1 (read)22 (assign class)

00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17 ,27, 28 (index)

3 1 Double bit output 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


3 2 Double bit input withstatus

1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


4 0 Double bit inputchange - any variation


4 1 Double bit inputchange without time



17, 28 (index)

4 2 Double bit inputchange with time



17, 28 (index)

4 3 Double bit inputchange with relative

time



17, 28 (index)




OBJECT REQUEST (Slave will parse) RESPONSE (Slave will respond with)10 0 Binary output status —

any variation1 (read) 00, 01 (start-stop)

06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)

10 1 Binary output 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


10 2 Binary output status 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


12 1 Control relay outputblock

3 (select)4 (operate)5 (direct op)6 (dir.op. noack)

17, 28 (index) 129 (response) echo of request

20 0 Binary counter —anyvariation


20 1 32–bit binary counter(with flag)


129 (response) 00,01 (start-stop)17, 28 (index)

20 2 16–bit binary counter(with flag)



20 5 32–bit binary counterwithout flag



20 6 16–bit binary counterwithout flag



22 0 Counter change event— any variation


22 1 32–bit counter changeevent without time



17, 28 (index)

22 2 16–bit counter changeevent without time



17, 28 (index)

22 3 32–bit delta counterchange event without

time

22 4 16–bit delta counterchange event without

time

22 5 32–bit counter changeevent with time



17, 28 (index)

22 6 16–bit counter changeevent with time



17, 28 (index)




OBJECT REQUEST (Slave will parse) RESPONSE (Slave will respond with)30 0 Analog input — any

variation1 (read)22 (assign class)

00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)

30 1 32–bit analog input 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


30 2 16–bit analog input 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


30 3 32–bit analog inputwithout flag



30 4 16–bit analog inputwithout flag



30 5 Short floating point 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


30 6 Long floating point 1 (read) 00, 01 (start-stop)06 (no range, or all)07, 08 (limited qty)17, 27, 28 (index)


32 0 Analog change event— any variation


32 1 32–bit analog changeevent without time



17, 28 (index)

32 2 16–bit analog changeevent without time



17, 28 (index)

32 3 32–bit analog changeevent with time



17, 28 (index)

32 4 16–bit analog changeevent with time



17, 28 (index)

32 5 Short floating pointanalog change event

without time



17, 28 (index)

32 6 Long floating pointanalog change event

without time



17, 28 (index)

32 7 Short floating pointanalog change event

with time



17, 28 (index)

32 8 Long floating pointanalog change event

with time



17, 28 (index)

50 0 Time and date

50 1 Time and date 1 (read) 07, (limited qty = 1) 129 (response) 07 (limited qty = 1)

2 (write) 07, (limited qty = 1)




OBJECT REQUEST (Slave will parse) RESPONSE (Slave will respond with)50 3 Time and date last

recorded time2 (write) 07 (limited qty)

51 1 Time and date CTO 129 (response)130 (unsol. resp)

07 (limited qty)(qty = 1)

51 2 Unsynchronized timeand date CTO


07 (limited qty)(qty = 1)

52 1 Time delay coarse 129 (response) 07 (limited qty)(qty = 1)

52 2 Time delay fine 129 (response) 07 (limited qty)(qty = 1)

60 0 Not defined

60 1 Class 0 data 1 (read) 06 (no range, or all)

60 2 Class 1 data 1 (read) 06 (no range, or all)07, 08 (limited qty)

20 (enbl. unsol.)21 (dab.unsol.)22 (assign class)

06 (no range, or all)

60 3 Class 2 data 1 (read) 06 (no range, or all)07, 08 (limited qty)

20 (enbl. unsol.)21 (dab.unsol.)22 (assign class)

06 (no range, or all)

60 4 Class 3 data 1 (read)20 (enbl. unsol.)21 (dab.unsol.)22 (assign class)

06 (no range, or all)06 (no range, or all)07, 08 (limited qty)

80 1 Internal indications 1 (read) 00, 01 (start-stop) 129 (response) 00,01 (start-stop)

2 (write) 3) 00 (start-stop)index=7

No object (function code only) 13 (cold restart)

No object (function code only) 14 (warm restart)

No object (function code only) 23 (delay meas.)

No object (function code only) 24 (record currenttime)

1) A default variation refers to the variation responded when variation 0 is requested and/or in class 0, 1, 2 or 3 scans. Default variationsare configurable; however, default settings for the configuration parameters are indicated in the table above.

2) For static (non-change event) objects, qualifiers 17 or 28 are only responded when a request is sent with qualifiers 17 or 28. Otherwise,static object requests sent with qualifiers 00, 01, 06, 07 or 08 are responded with qualifiers 00 or 01. (For change event objects,qualifiers 17 or 28 are always responded.)

3) Writings of internal indications are only supported for index 7 (Restart IIn1–7).



Section 4 Glossary

CB Circuit breakerDNP3 A distributed network protocol originally developed by

Westronic. The DNP3 Users Group has the ownershipof the protocol and assumes responsibility for its evolution.

EMC Electromagnetic compatibilityGFC General fault criteriaHMI Human-machine interfaceIEC International Electrotechnical CommissionIEC 60870-5-103 1. Communication standard for protective equipment

2. A serial master/slave protocol for point-to-pointcommunication

IEC 61850 International standard for substation communication andmodeling

IED Intelligent electronic deviceLED Light-emitting diodeLHMI Local human-machine interfacePCM600 Protection and Control IED ManagerPST Parameter Setting tool in PCM600REF630 Feeder protection and control IEDREG630 Generator protection and control IEDREM630 Motor protection and control IEDRET630 Transformer protection and control IEDWEI Weak-end infeed logicWHMI Web human-machine interface

1MRS756790 C Section 4Glossary


Contact us

ABB OyMedium Voltage Products,Distribution AutomationP.O. Box 699FI-65101 VAASA, FinlandPhone +358 10 22 11Fax +358 10 22 41094

www.abb.com/substationautomation

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