High Impedance Differential Protection Relay EBR-3000 · 2020-02-11 · EBR-3000 Reference Manual High Impedance Differential Protection Relay Version: 3.5.b (Build 37879) IB150018EN

EBR-3000

Reference ManualHigh Impedance Differential Protection Relay

Version: 3.5.b (Build 37879)IB150018ENRevision: NEWEnglish

EBR-Z

Operational

TripDiff Trip ADiff Trip BDiff Trip C

Info Ack/Rst Ok CTRL

EBR-3000

Original reference manual

Eaton

1000 Eaton Boulevard

Cleveland, OH 44122

United States

© 2018 Eaton

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Table of contents1 About This Reference Manual 2 Hardware 2.1 Device Configuration 2.2 Time 2.2.1 Timezone 2.2.2 TimeSync 2.3 Digital Inputs 2.3.1 DI-8P X1 2.4 Wired Inputs 2.5 Relay Outputs 2.5.1 RO-5 X2 2.6 LEDs 2.6.1 LEDs group A 2.7 HMI 2.7.1 HMI: Global Parameters 2.7.2 HMI: Direct Controls 3 Security 4 System 4.1 Sys: Global Parameters 4.2 Sys: Direct Controls 4.3 Sys: Input States 4.4 Sys: Signals (Output States) 4.5 Sys: Values 5 Measured Values 5.1 EBR-Z 5.1.1 EBR-Z: Values 5.1.2 EBR-Z: Statistical Values 6 Statistics 6.1 Statistics: Global Parameters 6.2 Statistics: Direct Controls 6.3 Statistics: Signals (Output States) 6.4 Statistics: Counters 7 Communication 7.1 SCADA: Device Planning Parameters 7.2 SCADA: Signals (Output States) 7.3 DNP 7.3.1 DNP: Global Parameters 7.3.2 DNP: Direct Controls 7.3.3 DNP: Input States 7.3.4 DNP: Signals (Output States) 7.3.5 DNP: Counters 7.4 Modbus 7.4.1 Modbus: Global Parameters 7.4.2 Modbus: Direct Controls 7.4.3 Modbus: Input States

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Table of contents

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7.4.4 Modbus: Signals (Output States) 7.4.5 Modbus: Values 7.4.6 Modbus: Counters 7.5 IEC61850 7.5.1 IEC61850: Global Parameters 7.5.2 IEC61850: Direct Controls 7.5.3 IEC61850: Signals (Output States) 7.5.4 IEC61850: Values 7.5.5 IEC61850: Counters 7.5.6 IEC 61850 Output Mapping 7.6 Profibus 7.6.1 Profibus: Global Parameters 7.6.2 Profibus: Direct Controls 7.6.3 Profibus: Input States 7.6.4 Profibus: Signals (Output States) 7.6.5 Profibus: Values 7.6.6 Profibus: Counters 7.7 IRIG-B 7.7.1 IRIG-B: Device Planning Parameters 7.7.2 IRIG-B: Global Parameters 7.7.3 IRIG-B: Direct Controls 7.7.4 IRIG-B: Signals (Output States) 7.7.5 IRIG-B: Counters 7.8 SNTP 7.8.1 SNTP: Device Planning Parameters 7.8.2 SNTP: Global Parameters 7.8.3 SNTP: Direct Controls 7.8.4 SNTP: Signals (Output States) 7.8.5 SNTP: Values 7.8.6 SNTP: Counters 7.9 TimeSync 7.9.1 TimeSync: Global Parameters 7.9.2 TimeSync: Signals (Output States) 7.10 TcpIp 7.10.1 TcpIp: Global Parameters 8 System Settings 9 Protection Parameter 9.1 Prot: Global Parameters 9.2 Prot: Direct Controls 9.3 Prot: Input States 9.4 Prot: Signals (Output States) 9.5 87[1]  . . .  87[3] 9.5.1 87[1]: Device Planning Parameters 9.5.2 87[1]: Global Parameters 9.5.3 87[1]: Setting Group Parameters 9.5.4 87[1]: Input States 9.5.5 87[1]: Signals (Output States) 9.6 87SV[1]  . . .  87SV[3] 9.6.1 87SV[1]: Device Planning Parameters 9.6.2 87SV[1]: Global Parameters


Table of contents

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9.6.3 87SV[1]: Setting Group Parameters 9.6.4 87SV[1]: Input States 9.6.5 87SV[1]: Signals (Output States) 9.7 ExP[1]  . . .  ExP[4] 9.7.1 ExP[1]: Device Planning Parameters 9.7.2 ExP[1]: Global Parameters 9.7.3 ExP[1]: Setting Group Parameters 9.7.4 ExP[1]: Input States 9.7.5 ExP[1]: Signals (Output States) 10 Control 10.1 Ctrl: Device Planning Parameters 10.2 Ctrl: Direct Controls 10.3 Ctrl: Signals (Output States) 10.4 86[1] 10.4.1 86[1]: Global Parameters 10.4.2 86[1]: Direct Controls 10.4.3 86[1]: Input States 10.4.4 86[1]: Signals (Output States) 10.4.5 Operation Statistics 10.5 86[2] 10.5.1 86[2]: Global Parameters 10.5.2 86[2]: Direct Controls 10.5.3 86[2]: Input States 10.5.4 86[2]: Signals (Output States) 10.5.5 Operation Statistics 11 Records 11.1 Event rec 11.1.1 Event rec: Direct Controls 11.1.2 Event rec: Signals (Output States) 11.2 Waveform rec 11.2.1 Waveform rec: Global Parameters 11.2.2 Waveform rec: Direct Controls 11.2.3 Waveform rec: Input States 11.2.4 Waveform rec: Signals (Output States) 11.2.5 Waveform rec: Values 11.3 Fault rec 11.3.1 Fault rec: Global Parameters 11.3.2 Fault rec: Direct Controls 11.3.3 Fault rec: Signals (Output States) 11.4 Trend rec 11.4.1 Trend rec: Global Parameters 11.4.2 Trend rec: Direct Controls 11.4.3 Trend rec: Signals (Output States) 11.4.4 Trend rec: Counters 12 Logic 12.1 Logic 12.1.1 Logic: Device Planning Parameters 12.1.2 Logic  . . .  Logic 13 Self Supervision, Supervision


Table of contents

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. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 160

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 163

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 163

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 164

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 165

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 166

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 170

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 317

13.1 SSV: Direct Controls 13.2 SSV: Signals (Output States) 13.3 SSV: Counters 13.4 TCM[1]  . . .  TCM[2] 13.4.1 TCM[1]: Device Planning Parameters 13.4.2 TCM[1]: Global Parameters 13.4.3 TCM[1]: Setting Group Parameters 13.4.4 TCM[1]: Input States 13.4.5 TCM[1]: Signals (Output States) 14 Service 14.1 Sgen 14.1.1 Sgen: Device Planning Parameters 14.1.2 Sgen: Global Parameters 14.1.3 Sgen: Direct Controls 14.1.4 Sgen: Input States 14.1.5 Sgen: Signals (Output States) 14.1.6 Sgen: Values 14.1.7 Sgen 15 Selection Lists 16 Index


Table of contents


Table of contents

1 About This Reference ManualThis document is a reference of all the Setting Values, Direct Commands and Signals ofthe EBR-3000. In other words, it lists all parameters that are available (or can be madeavailable) with the (optionally) full featured versions of the EBR-3000 protection device.

CAUTION!

This document does not intend to give long and/or detailed description, nor does it intendto replace the full Technical Manual in any way. Only a quite short description is given foreach parameter.

Every E‑Series protection device operates using a lot of digital values of various types.Throughout our Technical Documentation, we are talking of “settings” (or “parameters”)or “signals” or “(measured) values”, depending on the type.

In particular, there are the following types:

• Direct Commands, that are not part of a settings file, but executed only once andimmediately. Commands for resetting counter values are examples for DirectCommands.

• Setting Values, usually of number type (e. g. thresholds of protection functions).However, a lot of setting values are also of type “selection list”, i. e. they take a fixedchoice as a value. Depending on the parameter, this choice can be a fixed text(“Phase to Phase”, “Phase to Ground”), or the current run-time value of an OutputState (Signal, see below).

Setting Values are sub-divided into categories as follows:

◦ Global Parameters, which exist only once (per module), and

◦ Setting Group Parameters, each of which is a set of four values. Every valuebelongs to a so-called “Parameter Set”. At any time during operation of theprotection device, exactly one parameter set is active, for example “Set 2”, andthis means that for every Setting Group Parameter, the setting value assignedto “Set 2” is used. As a consequence, switching to another parameter set, forexample “Set 4”, affects the behavior of every protection function, because allSetting Group Parameters (in all functions) switch to another setting value – the“Set 4 value”, which might be (but of course, needs not necessarily be)different from the “Set 2 value”.

Since for every Setting Group Parameter the factory defaults (and the availablevalue ranges) are the same for all the four parameter sets, the reference tableslist one factory default (and one value range) for each Setting Group Parameter.

◦ By means of Adaptive Parameter Sets you can modify dynamically singleparameters within the parameter sets of a protection module: Setting valuesare defined to be dependent on the “True/False” value of a particular Booleansignal. It is possible to define up to four Boolean signals for value switching,which means that – together with the base value – such an Adaptive Parametercan have up to five alternative values (per parameter set, which makes a totalsum of up to 20 values). Which one gets actively used at a particular momentof time, will then depend on the run-time value of the (up to four) relatedBoolean parameters.


1 About This Reference Manual

Contrast to Setting Group Parameters, Adaptive Parameter Sets are “local”, i. e.they are effective only within the protection function where they had beenactivated.

Note, however, that not all protection functions support Adaptive ParameterSets.

Since some users are maybe not quite familiar with the concept of AdaptiveParameter Sets there is a dedicated chapter with a more detailed description inthe User Manual.

• Values: These are numerical run-time values, for example measurement values.

• Statistical Values: These are calculated numerical values, and in most cases, thereexist Direct Commands to reset the statistical calculations.

• Counters: These have integer numbers as a value.

• Signals (Output States): These are the run-time values of binary parameters, i. e.parameters that can have only the two values “Active” and “Inactive”. These areused to signal some operation state. Many setting parameters can take this run-timevalue as their own input and react in some way to the signaled operation state.Throughout our Technical Documentation, we are saying that we “assign” the OutputState (or: the signal) to the setting parameter.

Since for every signal (Output State), there are only two possible values, thereference tables do not list a default value, nor a value range.

• Input States. Strictly speaking, these are also signals, but of a special kind: Everysetting parameter that takes an Output State as its setting value, as describedabove, comes in companion with an Input State, which is a parameter of its own, butits only purpose is to show the current run-time value of the assigned signal. Forexample, the parameter »87 . ExBlo TripCmd« can be assigned a signal suchas »QA1 . Pos Indeterm«. In addition to the setting parameter »87 . ExBlo TripCmd«,there exists an Input State parameter »87 . ExBlo TripCmd-I« that permanentlyreflects the current run-time value of the assigned signal »QA1 . Pos Indeterm«.

For Input States, the reference tables list neither a default value nor a value range,for the same reason as for Output States.

The firmware of every E‑Series protection device can be thought of being sub-divided inseveral independent function blocks. Throughout our Technical Documentation, we aretalking of “modules” (or sometimes of “functions”). Every protection function, forexample, is a module of its own. But one of the fundamental concepts of a E‑Seriesprotection device is to implement this with great consequence: The functionality ofcalculating statistical data is a module (named »Statistics«), every communicationprotocol is a module, the control of switchgear devices is a module (named »Ctrl«), thereis even a general protection module (named »Prot«) that interacts all specific protectionmodules.

Note that on the panel (HMI) of the protection device and in many setting dialog windowsof the PowerPort-E operating software, the module name is often omitted whenever it isclear from the menu branch. In other words, within a menu branch [Protection Para /Set 1 / I-Prot / 50P[1]], it is obvious that all parameters listed there belong to theovercurrent module »50P[1]«. Therefore the parameters are listed only by their individualparameter names, i. e. simply »Function« instead of the full-blown »50P[1] . Function«.This increases the overview and simplifies all configuration and operation work; however,



it is good to know that the writing »Function« is just an abbreviation, and it does notmean that this parameter does not belong to a module. In fact, every parameter alwaysbelongs to a module, and therefore – to make this concept absolutely clear – thereference tables have always the module name added in front of every parameter name.

Especially for protection functions it is often required to have several instances active. Forexample, overcurrent protection usually has several “stages”, and all of these are runningat the same time (using their individual setting values). Therefore it is an importantfeature of every E‑Series protection device that a lot of modules exist in several“instances”, which are simply numbered: For the overcurrent protection, forexample: »50P[1]«, 50P[2]«, …

In the reference tables, usually every module has its own dedicated chapter, which liststhe available number of instances at the beginning. Then, however, in the sub-chapterslisting the various parameter types, only the first instance (e. g. »50P[1]«) is mentioned,because all the other instances are identical anyway.

Structure of a Reference Table

The top-level chapters in this Reference Manual essentially reflect the top-level menubranches, and each of these has sub-chapters dedicated to the various modulesbelonging there. This results in a mixture of menu and module categories, that might beconfusing at a first glance. We, however, are convinced that it makes looking upparameter properties easy: It would be very inconvenient to strictly reflect the menubranches, because most modules can be deactivated if they are not needed for aparticular application. And it would be confusing if the tables in this Reference Manualswould mix all the modules together, because then active and inactive modules /parameters would all be mixed.

For each parameter, there is a table with its properties, looking like this:

Module . Parameter [Menu Path to This Parameter]

Default Value

For some parameters:

• Availability restrictions

Value Range Perm.

Short descriptive text explaining the functionality of this parameter.

“Perm.” means “permission”, i. e. the access level and password that is required to modifythe parameter. (Please refer to the “Security” chapter in the full Technical Manual fordetails.)

“⟴ Adapt. Param.” means that this parameter supports Adaptive Parameter Sets. (Seethe “Adaptive Parameter Sets” section in the User Manual for a detailed description.)

For some parameter types (e. g. Input and Output States), the second row (default, valuerange, permission) is useless and therefore omitted.

Example of a parameter:



50P[1] . Mode [Device Planning]

Non-directional Selection List ╚═▷ Mode:

-, Non-directional, Forward, Reverse

S.3

General Operation Mode

This means that one can find the parameter in the menu [Device Planning], and its valuesare picked from a selection list named “Mode”. The “╚═▷” arrow indicates a cross-reference (hyperlink) into the “Selection Lists” chapter, and a click takes you to a tablethat lists all available choices. The access level “S.3” means the access level “Supervisor-Lv3”, which is required to modify the parameter.

Audience of This Manual

The manual serves as working basis for:

• Engineers in the protection field,

• commissioning engineers,

• people dealing with setting, testing and maintenance of protection and controldevices,

• as well as trained personnel for electrical installations and power stations.

All functions concerning the type code will be defined. Should there be a description ofany functions, parameters or inputs/outputs which do not apply to the device in use,please ignore that information.

This manual describes the (optionally) full featured versions of the devices.

All technical information and data included in this manual reflect their state at the timethis document was issued. We reserve the right to carry out technical modifications in linewith further development without changing this manual and without previous notice.Hence no claim can be brought based on the information and descriptions this manualincludes.

We do not accept any liability for damage and operational failures caused by operatingerrors or disregarding the directions of this manual.

No part of this manual is allowed to be reproduced or passed on to others in any form,unless Eaton have approved in writing.

This Reference Manual is part of the delivery scope when purchasing the device. In casethe device is passed on (sold) to a third party, the manual has to be handed over as well.

Information Concerning Liability and Warranty

Eaton does not accept any liability for damage resulting from conversions or changescarried out on the device or planning (projecting) work, parameter setting or adjustmentchanges done by the customer.

The warranty expires after a device has been opened by others than Eaton specialists.



Warranty and liability conditions stated in Eaton General Terms and Conditions are notsupplemented by the above mentioned explanations.



2 Hardware

2.1 Device ConfigurationThe parameters listed here are not setting parameters, but reflect the potentiallyavailable hardware variants according to the Order Code, or Catalog.

Hardware Variant 1

8 Digital Inputs | 6 Relay Outputs |IRIG-B | TCM

8 Digital Inputs | 6 Relay Outputs | IRIG-B | TCM

╚═▷ Hardware Option 1.

S.3

Optional Hardware Extension

Hardware Variant 2

Standard Standard

╚═▷ Hardware Option 2.

S.3

Optional Hardware Extension

Communication

Without Without  . . .  RS485, Ethern.: IEC61850 | Modb. TCP,RTU |DNP UDP,TCP,RTU

╚═▷ Communication.

S.3

Communication

Printed Circuit Board

Standard Standard, Conformal Coating

╚═▷ Printed Circuit Board.

S.3



2 Hardware2.1 Device Configuration

2.2 Time

2.2.1 Timezone

TimeSync . Time Zones [Device Para / Time / Timezone]

UTC+0 London UTC+14 Kiritimati  . . .  UTC-11 Midway Islands

╚═▷ Time Zones.

S.3

Time Zones

TimeSync . DST offset [Device Para / Time / Timezone]

60min -180min  . . .  180min S.3

Difference to wintertime

TimeSync . DST manual [Device Para / Time / Timezone]

Active Inactive, Active

╚═▷ Mode.

S.3

Manual setting of the Daylight Saving Time

TimeSync . Summertime [Device Para / Time / Timezone]

Inactive

Only available if:

• TimeSync . DST manual= Active

Inactive, Active

╚═▷ Mode.

S.3

Daylight Saving Time

TimeSync . Summertime m [Device Para / Time / Timezone]

March

Only available if:

• TimeSync . DST manual= Inactive

January  . . .  December

╚═▷ Month of clock change.

S.3

Month of clock change summertime


2 Hardware2.2 Time

TimeSync . Summertime d [Device Para / Time / Timezone]

Sunday

Only available if:


Sunday  . . .  General day

╚═▷ Date.

S.3

Day of clock change summertime

TimeSync . Summertime w [Device Para / Time / Timezone]

Last

Only available if:


First, Second, Third, Fourth, Last

╚═▷ Day of clock change.

S.3

Place of selected day in month (for clock change summertime)

TimeSync . Summertime h [Device Para / Time / Timezone]

2h

Only available if:


0h  . . .  23h S.3

Hour of clock change summertime

TimeSync . Summertime min [Device Para / Time / Timezone]

0min

Only available if:


0min  . . .  59min S.3

Minute of clock change summertime


2 Hardware2.2 Time

TimeSync . Wintertime m [Device Para / Time / Timezone]

October

Only available if:




S.3

Month of clock change wintertime

TimeSync . Wintertime d [Device Para / Time / Timezone]

Sunday

Only available if:



╚═▷ Date.

S.3

Day of clock change wintertime

TimeSync . Wintertime w [Device Para / Time / Timezone]

Last

Only available if:




S.3

Place of selected day in month (for clock change wintertime)

TimeSync . Wintertime h [Device Para / Time / Timezone]

3h

Only available if:


0h  . . .  23h S.3

Hour of clock change wintertime


2 Hardware2.2 Time

TimeSync . Wintertime min [Device Para / Time / Timezone]

0min

Only available if:


0min  . . .  59min S.3

Minute of clock change wintertime


2 Hardware2.2 Time

2.2.2 TimeSync

TimeSync . TimeSync [Device Para / Time / TimeSync / TimeSync]

“-” “-”, IRIG-B . IRIG-B, SNTP . SNTP, Modbus . Modbus,DNP . DNP

╚═▷ Used Protocol.

S.3

Time synchronization

IRIG-B . Function [Device Para / Time / TimeSync / IRIG-B]

Inactive Inactive, Active

╚═▷ Mode.

S.3

Permanent activation or deactivation of module/element.

IRIG-B . IRIG-B00X [Device Para / Time / TimeSync / IRIG-B]

IRIGB-000 IRIGB-000  . . .  IRIGB-007

╚═▷ IRIG-B00X.

S.3

Determination of the Type: IRIG-B00X. IRIG-B types differ in types of included “Coded Expressions”(year, control-functions, straight-binary-seconds).

SNTP . Server1 [Device Para / Time / TimeSync / SNTP]


╚═▷ Mode.

S.3

Server 1

SNTP . IP Byte1

 . . . 

SNTP . IP Byte4

[Device Para / Time / TimeSync / SNTP]

0 0  . . .  255 S.3

IP1.IP2.IP3.IP4


2 Hardware2.2 Time



╚═▷ Mode.

S.3

Server 2


2 Hardware2.2 Time

2.3 Digital Inputs

2.3.1 DI-8P X1

DI-8P X1 . Nom Voltage [Device Para / Digital Inputs / DI-8P X1 / Group 1]

[Device Para / Digital Inputs / DI-8P X1 / Group 2]


125 Vdc 24 Vdc, 48 Vdc, 60 Vdc, 125 Vdc, 250 Vdc, 110/120 Vac,230/240 Vac

╚═▷ Nom Voltage.

S.3

Nominal voltage of the digital inputs

DI-8P X1 . Inverting 1

 . . . 

DI-8P X1 . Inverting 8





╚═▷ Mode.

S.3

Inverting the input signals.

DI-8P X1 . Debouncing Time 1

 . . . 

DI-8P X1 . Debouncing Time 8




20 ms No Debouncing Time, 20 ms, 50 ms, 100 ms

╚═▷ Debouncing Time.

S.3

A change of the state of a digital input will only be recognized after the debouncing time hasexpired (become effective). Thus, transient signals will not be misinterpreted.


2 Hardware2.3 Digital Inputs

DI-8P X1 . DI 1

 . . . 

DI-8P X1 . DI 8




Signal: Digital Input


2 Hardware2.3 Digital Inputs

2.4 Wired Inputs

Wired Inputs . 86T NO [Device Para / Wired Inputs]

“-” “-”  . . .  DI-8P X1 . DI 8

╚═▷ 1..n, WiredInputs.

P.2

Position indication of the lockout relay (86 TRIP / normally open contact). The signal is inactive (i.e.contact is open) if the lockout relay is in reset state.

Wired Inputs . 86T NC [Device Para / Wired Inputs]

“-” “-”  . . .  DI-8P X1 . DI 8


P.2

Position indication of the lockout relay (86 TRIP / normally closed contact). The signal is active (i.e.contact is closed) if the lockout relay is in reset state.

Wired Inputs . 86 CT NO [Device Para / Wired Inputs]

“-” “-”  . . .  DI-8P X1 . DI 8


P.2

Position indication of the lockout relay (86 CT / normally open contact). The signal is inactive (i.e.contact is open) if the lockout relay is in reset state.

Wired Inputs . 86 CT NC [Device Para / Wired Inputs]

“-” “-”  . . .  DI-8P X1 . DI 8


P.2

Position indication of the lockout relay (86 CT / normally closed contact). The signal is inactive (i.e.contact is open) if the lockout relay is in reset state.

Wired Inputs . Check Zone [Device Para / Wired Inputs]

“-” “-”  . . .  DI-8P X1 . DI 8


P.2

Input of Check Zone relay.


2 Hardware2.4 Wired Inputs

2.5 Relay Outputs

2.5.1 RO-5 X2

RO-5 X2 . Operating Mode [Device Para / Relay Outputs / RO-5 X2 / RO 1]

Norm De-energ. (NO) Norm De-energ. (NO), Norm Energ. (NC)

╚═▷ 1...n Operating Modes.

S.3

Operating Mode

RO-5 X2 . t-Off Delay [Device Para / Relay Outputs / RO-5 X2 / RO 1]

0.2s 0.00s  . . .  300.00s S.3

Switch Off Delay

RO-5 X2 . Latched [Device Para / Relay Outputs / RO-5 X2 / RO 1]


╚═▷ Mode.

S.3

Defines whether the Relay Output will be latched when it picks up.

RO-5 X2 . Acknowledgment [Device Para / Relay Outputs / RO-5 X2 / RO 1]

“-”

Only available if:

• RO-5 X2 . Latched = Active

“-”  . . .  Sys . Internal test state

╚═▷ 1..n, Assignment List.

S.3

Acknowledgment Signal - An acknowledgment signal (that acknowledges the corresponding RelayOutput) can be assigned to each Relay Output. The acknowledgement-signal is only effective if theparameter "Latched" is set to active.

RO-5 X2 . Assignment 1 [Device Para / Relay Outputs / RO-5 X2 / RO 1]

86[1] . TripCmd “-”  . . .  Sys . Internal test state


S.3

Assignment


2 Hardware2.5 Relay Outputs

RO-5 X2 . Inverting 1

 . . . 


[Device Para / Relay Outputs / RO-5 X2 / RO 1]


╚═▷ Mode.

S.3

Inverting of the state of the assigned signal.

RO-5 X2 . Assignment 2

 . . . 



“-” “-”  . . .  Sys . Internal test state


S.3

Assignment




S.3

Operating Mode


0.2s 0.00s  . . .  300.00s S.3

Switch Off Delay



╚═▷ Mode.

S.3





“-”

Only available if:




S.3


RO-5 X2 . Assignment 1 [Device Para / Relay Outputs / RO-5 X2 / RO 2]

Prot . Pickup “-”  . . .  Sys . Internal test state


S.3

Assignment


 . . . 




╚═▷ Mode.

S.3



 . . . 





S.3

Assignment






S.3

Operating Mode


0.00s 0.00s  . . .  300.00s S.3

Switch Off Delay



╚═▷ Mode.

S.3



“-”

Only available if:




S.3



 . . . 





S.3

Assignment




 . . . 




╚═▷ Mode.

S.3





S.3

Operating Mode


0.2s 0.00s  . . .  300.00s S.3

Switch Off Delay



╚═▷ Mode.

S.3



“-”

Only available if:




S.3





 . . . 





S.3

Assignment


 . . . 




╚═▷ Mode.

S.3





S.3

Operating Mode


0.2s 0.00s  . . .  300.00s S.3

Switch Off Delay



╚═▷ Mode.

S.3





“-”

Only available if:




S.3



 . . . 





S.3

Assignment


 . . . 




╚═▷ Mode.

S.3




2.5.1.1 RO-5 X2: ServiceRO-5 X2 . DISARMED Ctrl [Service / Test Mode (Prot inhibit) / WARNING! Cont? /

DISARMED / RO-5 X2]


╚═▷ Active/Inactive.

S.3

Enables and disables the disarming of the relay outputs. This is the first step of a two step process,to inhibit the operation or the relay outputs. Please refer to "DISARMED" for the second step.

RO-5 X2 . Disarm Mode [Service / Test Mode (Prot inhibit) / WARNING! Cont? /DISARMED / RO-5 X2]

Permanent Permanent, Timeout

╚═▷ Mode.

S.3

CAUTION! RELAYS DISARMED in order to safely perform maintenance while eliminating the risk oftaking an entire process off-line. (Note: Zone Interlocking and Supervision Contact cannot bedisarmed). YOU MUST ENSURE that the relays are ARMED AGAIN after maintenance.

RO-5 X2 . t-Timeout DISARM [Service / Test Mode (Prot inhibit) / WARNING! Cont? /DISARMED / RO-5 X2]

0.03s

Only available if:

• RO-5 X2 . Disarm Mode= Timeout

0.00s  . . .  300.00s S.3

The relays will be armed again after expiring of this time.

RO-5 X2 . DISARMED [Service / Test Mode (Prot inhibit) / WARNING! Cont? /DISARMED / RO-5 X2]



S.3

This is the second step, after the "DISARMED Ctrl" has been activated, that is required to DISARMthe relay outputs. This will DISARM those relay outputs that are currently not latched and that arenot timing out. CAUTION! RELAYS DISARMED in order to safely perform maintenance whileeliminating the risk of taking an entire process off-line. (Note: Zone Interlocking and SupervisionContact cannot be disarmed). YOU MUST ENSURE that the relays are ARMED AGAIN aftermaintenance.



RO-5 X2 . Force Mode [Service / Test Mode (Prot inhibit) / WARNING! Cont? / ForceRO / RO-5 X2]

Permanent Permanent, Timeout

╚═▷ Mode.

S.3

By means of this function the normal Relay Output States can be overwritten (forced) in case thatthe Relay Output is not in a disarmed state. The relays can be set from normal operation (relayworks according to the assigned signals) to "force energized" or "force de-energized" state.

RO-5 X2 . t-Timeout Force [Service / Test Mode (Prot inhibit) / WARNING! Cont? / ForceRO / RO-5 X2]

0.03s

Only available if:

• RO-5 X2 . Force Mode= Timeout

0.00s  . . .  300.00s S.3

The Output State will be set by force for the duration of this time. That means, for the duration ofthis time, the Relay Output does not show the state of the signals that are assigned on it.

RO-5 X2 . Force all Outs [Service / Test Mode (Prot inhibit) / WARNING! Cont? / ForceRO / RO-5 X2]

Normal Normal, De-Energized, Energized

╚═▷ Relay operating modes.

S.3

By means of this function the normal Relay Output State can be overwritten (forced). The relay canbe set from normal operation (relay works according to the assigned signals) to "force energized"or "force de-energized" state. Forcing all relay outputs of an entire assembly group has precedenceto forcing a single relay output.

RO-5 X2 . Force RO1

 . . . 

RO-5 X2 . Force RO5

[Service / Test Mode (Prot inhibit) / WARNING! Cont? / ForceRO / RO-5 X2]

Normal Normal, De-Energized, Energized

╚═▷ Relay operating modes.

S.3

By means of this function the normal Relay Output State can be overwritten (forced). The relay canbe set from normal operation (relay works according to the assigned signals) to "force energized"or "force de-energized" state.



RO-5 X2 . RO 1

 . . . 

RO-5 X2 . RO 5

[Service / Test Mode (Prot inhibit) / WARNING! Cont? / State /RO-5 X2]

Signal: Relay Output

RO-5 X2 . DISARMED! [Service / Test Mode (Prot inhibit) / WARNING! Cont? / State /RO-5 X2]

Signal: CAUTION! RELAYS DISARMED in order to safely perform maintenance while eliminating therisk of taking an entire process off-line. (Note: Zone Interlocking and Supervision Contact cannot bedisarmed). YOU MUST ENSURE that the relays are ARMED AGAIN after maintenance

RO-5 X2 . Outs forced [Service / Test Mode (Prot inhibit) / WARNING! Cont? / State /RO-5 X2]

Signal: The State of at least one Relay Output has been set by force. That means that the state ofat least one Relay is forced and hence does not show the state of the assigned signals.



2.6 LEDs

2.6.1 LEDs group A

LEDs group A . Latched [Device Para / LEDs / LEDs group A / LED 1]

active, ack. by pickup Inactive, Active, active, ack. by pickup

╚═▷ Mode.

S.3

Defines whether the LED will be latched when it picks up.

LEDs group A . Ack signal [Device Para / LEDs / LEDs group A / LED 1]

“-”

Only available if:

• LEDs group A . Latched= Active



S.3

Acknowledgment signal for the LED. If latching is set to active the LED can only be acknowledged ifall signals that initiated the setting of the LED are no longer present.

LEDs group A . LED Active Color [Device Para / LEDs / LEDs group A / LED 1]

Red Green, Red, Red flash, Green flash, “-”

╚═▷ LED Active Color.

S.3

The LED lights up in this color if the state of the OR-assignment of the signals is true.

LEDs group A . LED Inactive Color [Device Para / LEDs / LEDs group A / LED 1]

“-” Green, Red, Red flash, Green flash, “-”


S.3

The LED lights up in this color if the state of the OR-assignment of the signals is false.

LEDs group A . Assignment 1 [Device Para / LEDs / LEDs group A / LED 1]

86[1] . TripCmd “-”  . . .  Sys . Internal test state


S.3

Assignment


2 Hardware2.6 LEDs

LEDs group A . Inverting 1

 . . . 


[Device Para / LEDs / LEDs group A / LED 1]


╚═▷ Mode.

S.3


LEDs group A . Assignment 2

 . . . 





S.3

Assignment



╚═▷ Mode.

S.3



“-”

Only available if:




S.3



2 Hardware2.6 LEDs




S.3





S.3



87[1] . Trip A “-”  . . .  Sys . Internal test state


S.3

Assignment


 . . . 




╚═▷ Mode.

S.3



 . . . 





S.3

Assignment


2 Hardware2.6 LEDs



╚═▷ Mode.

S.3



“-”

Only available if:




S.3





S.3





S.3



87[1] . Trip B “-”  . . .  Sys . Internal test state


S.3

Assignment


2 Hardware2.6 LEDs


 . . . 




╚═▷ Mode.

S.3



 . . . 





S.3

Assignment



╚═▷ Mode.

S.3



“-”

Only available if:




S.3



2 Hardware2.6 LEDs




S.3





S.3



87[1] . Trip C “-”  . . .  Sys . Internal test state


S.3

Assignment


 . . . 




╚═▷ Mode.

S.3



 . . . 





S.3

Assignment


2 Hardware2.6 LEDs


Inactive Inactive, Active, active, ack. by pickup

╚═▷ Mode.

S.3



“-”

Only available if:




S.3



Red flash Green, Red, Red flash, Green flash, “-”


S.3





S.3



 . . . 





S.3

Assignment


2 Hardware2.6 LEDs


 . . . 




╚═▷ Mode.

S.3



Active Inactive, Active, active, ack. by pickup

╚═▷ Mode.

S.3



“-”

Only available if:




S.3





S.3





S.3



2 Hardware2.6 LEDs


 . . . 





S.3

Assignment


 . . . 




╚═▷ Mode.

S.3



Inactive Inactive, Active, active, ack. by pickup

╚═▷ Mode.

S.3



“-”

Only available if:




S.3



2 Hardware2.6 LEDs


Green flash Green, Red, Red flash, Green flash, “-”


S.3





S.3



 . . . 





S.3

Assignment


 . . . 




╚═▷ Mode.

S.3



2 Hardware2.6 LEDs

2.7 HMIFront panel

Password [Device Para / Security / Password]

This item represents a special dialog. (See the Technical Manual for details.)

Changing the password

Access Level [Device Para / Security / Access Level]


Access Level

2.7.1 HMI: Global Parameters

HMI . Display Off [Device Para / HMI]

180s 20s  . . .  3600s S.3

The display back light will be turned off when this timer has expired.

HMI . t-max Edit/Access [Device Para / Security / Miscellaneous]

180s 20s  . . .  3600s S.3

If no other key(s) is pressed at the panel, after expiration of this time, all cached (changed)parameters are cancelled. The device access will be locked by falling back into Read-only level Lv0.

2.7.2 HMI: Direct Controls

HMI . Contrast [Device Para / HMI]

50% 0%  . . .  100% S.3

Contrast


2 Hardware2.7 HMI

HMI . PowerPort-E via USB [Device Para / Security / Communication]


╚═▷ Mode.

S.3

Activate (allow) or inactivate (disallow) the PowerPort-E access via the USB interface.

HMI . PowerPort-E via Eth [Device Para / Security / Communication]

Active

Avail. depends on HW

Inactive, Active

╚═▷ Mode.

S.3

Activate (allow) or inactivate (disallow) the PowerPort-E access via the Ethernet interface.

HMI . Reset Options [Device Para / Security / Miscellaneous]

“Fact.def.”, “PW rst” “Fact.def.”, “PW rst”, Only “Fact.defaults”, Reset deact.

╚═▷ Reset Options.

S.3

If the »Ack/Rst« key is pressed while the device is performing a cold restart a general Reset Dialogappears on the screen. Select which options shall be available with this dialog.


2 Hardware2.7 HMI


2 Hardware

3 SecurityHMI . PowerPort-E via USB [Device Para / Security / Communication]


╚═▷ Mode.

S.3

Activate (allow) or inactivate (disallow) the PowerPort-E access via the USB interface.

HMI . PowerPort-E via Eth [Device Para / Security / Communication]

Active


Inactive, Active

╚═▷ Mode.

S.3

Activate (allow) or inactivate (disallow) the PowerPort-E access via the Ethernet interface.

Modbus . PowerPort-E via Modbus [Device Para / Security / Communication]


╚═▷ Mode.

P.1

Activate (allow) or inactivate (disallow) the PowerPort-E access via the Modbus tunnel.

HMI . t-max Edit/Access [Device Para / Security / Miscellaneous]

180s 20s  . . .  3600s S.3

If no other key(s) is pressed at the panel, after expiration of this time, all cached (changed)parameters are cancelled. The device access will be locked by falling back into Read-only level Lv0.

HMI . Reset Options [Device Para / Security / Miscellaneous]

“Fact.def.”, “PW rst” “Fact.def.”, “PW rst”, Only “Fact.defaults”, Reset deact.

╚═▷ Reset Options.

S.3

If the »Ack/Rst« key is pressed while the device is performing a cold restart a general Reset Dialogappears on the screen. Select which options shall be available with this dialog.

Password [Device Para / Security / Password]


Changing the password


3 Security

Access Level [Device Para / Security / Access Level]


Access Level


3 Security


3 Security

4 SystemSystem

4.1 Sys: Global Parameters

Sys . Program Mode [System Para / General Settings]

- . Always - . Always  . . .  Logic . LE80.Out inverted

╚═▷ Program Mode.

P.2

Parameters can only be changed as long as this input is true. (This means the parameter settingsare locked when this input is false.)

Sys . PSet-Switch [Protection Para / PSet-Switch]

PS1 PS1, PS2, PS3, PS4, PSS via Inp fct, PSS via Comm

╚═▷ PSet-Switch.

P.2

Switching Parameter Set

Sys . PS1: Activated by

 . . . 

Sys . PS4: Activated by

[Protection Para / PSet-Switch]

“-”

Only available if:

• Sys . PSet-Switch = PSS via Inpfct

“-”  . . .  Sys . Maint Mode Inactive

╚═▷ 1..n, PSS.

P.2

This Setting Group will be the active one if: The Parameter Setting Group Switch is set to "Switchvia Input" and the other three input functions are inactive at the same time. In case there is morethan one input function active, no Parameter Setting Group Switch will be executed. In case allinput functions are inactive, the device will keep working with the Setting Group that was activatedlastly.

Sys . Ack via »Ack/Rst« key [Device Para / Acknowledge]

Ack Everything Nothing, Ack LEDs, Ack LEDs and RO, Ack Everything

╚═▷ Ack via »Ack/Rst« key.

P.2

Select which acknowledgeable elements can be reset via pressing the »Ack/Rst« key.


4 System4.1 Sys: Global Parameters

Sys . Remote Reset [Device Para / Acknowledge]


╚═▷ Mode.

P.2

Enables or disables the option to acknowledge from external/remote via signals (assignments) andCommunication.

Sys . Ack LED [Device Para / Acknowledge]

“-”

Only available if:

• Sys . Remote Reset = Active



S.3

All acknowledgeable LEDs will be acknowledged if the state of the assigned signal becomes true.

Sys . Ack RO [Device Para / Acknowledge]

“-”

Only available if:




S.3

All acknowledgeable Relay Outputs will be acknowledged if the state of the assigned signalbecomes true.

Sys . Ack Comm [Device Para / Acknowledge]

“-”

Only available if:




S.3

Latched communication (SCADA) signals are acknowledged (reset) if the state of the assignedsignal becomes true.


4 System4.1 Sys: Global Parameters

4.2 Sys: Direct Controls

Sys . Ack RO LED Comm TCmd [Operation / Reset]


╚═▷ Mode.

P.1

Reset the Relay Outputs, LEDs, Communication, and the Trip Command.

Sys . Ack LED [Operation / Reset]


╚═▷ Mode.

P.1

All acknowledgeable LEDs will be acknowledged.

Sys . Ack RO [Operation / Reset]


╚═▷ Mode.

P.1

All acknowledgeable Relay Outputs will be acknowledged.

Sys . Ack Comm [Operation / Reset]

Inactive

Only available if:

• SCADA . Protocol ≠ “-”

Inactive, Active

╚═▷ Mode.

P.1

Latched communication (SCADA) signals are acknowledged (reset).

Sys . Program Mode Bypass [System Para / General Settings]


╚═▷ Mode.

P.1

Short-period bypass of the Program Mode.


4 System4.2 Sys: Direct Controls

Sys . Reboot [Service / General]

No No, Yes

╚═▷ Yes/No.

S.3

Rebooting the device.

4.3 Sys: Input States

Sys . Ack LED-I [Operation / Status Display / Sys]

Module Input State: LEDs Acknowledgment by Digital Input.

Sys . Ack RO-I [Operation / Status Display / Sys]

Module Input State: Acknowledgment of the Relay Outputs.

Sys . Ack Comm-I [Operation / Status Display / Sys]

Only available if:


Module Input State: Acknowledge latched communication (SCADA) signals.

Sys . PS1-I

 . . . 

Sys . PS4-I

[Operation / Status Display / Sys]

State of the module input, respectively of the signal, that should activate this Parameter SettingGroup.

Sys . Program Mode-I [Operation / Status Display / Sys]

State of the module input: Parameters can only be changed as long as this input is true. (Thismeans the parameter settings are locked when this input is false.)


4 System4.3 Sys: Input States

4.4 Sys: Signals (Output States)

Sys . Reboot [Operation / Status Display / Sys]

Signal: Rebooting the device: 1=Restart initiated by power supply; 2=Restart initiated by the User;3=Set on defaults (Super Reset); 4=Restart by the debugger; 5=Restart because of configurationchange; 6=General failure; 7=Restart initiated by System Abort (host side); 8=Restart initiated bywatchdog timeout (host side); 9=Restart initiated by System Abort (dsp side); 10=Restart initiatedby watchdog timeout (dsp side); 11=Power supply failure (short term interruption) or power supplyvoltage too low; 12=illegal memory access.

Sys . Act Set [Operation / Status Display / Sys]

[Protection Para / PSet-Switch]

Signal: Active Parameter Set

Sys . PS 1 [Operation / Status Display / Sys]

Signal: The currently active Parameter Set is PS 1







Sys . PSS manual [Operation / Status Display / Sys]

Signal: Manual switch over of a Parameter Set

Sys . PSS via Comm [Operation / Status Display / Sys]

Only available if:


Signal: Parameter Set Switch via Scada. Write into this output byte the integer of the parameter setthat should become active (e.g. 4 => Switch onto parameter set 4).


4 System4.4 Sys: Signals (Output States)

Sys . PSS via Inp fct [Operation / Status Display / Sys]

Signal: Parameter Set Switch via Input Function

Sys . Min. 1 param changed [Operation / Status Display / Sys]

Signal: At least one parameter has been changed

Sys . Program Mode Bypass [Operation / Status Display / Sys]

Signal: Short-period bypass of the Program Mode.

Sys . Ack LED [Operation / Status Display / Sys]

Signal: LEDs Acknowledgment

Sys . Ack RO [Operation / Status Display / Sys]

Signal: Acknowledgment of the Relay Outputs

Sys . Ack Comm [Operation / Status Display / Sys]

Only available if:


Signal: Acknowledge latched communication (SCADA) signals

Sys . Ack TripCmd [Operation / Status Display / Sys]

Signal: Reset Trip Command

Sys . Ack LED-HMI [Operation / Status Display / Sys]

Signal: LEDs Acknowledgment :HMI

Sys . Ack RO-HMI [Operation / Status Display / Sys]

Signal: Acknowledgment of the Relay Outputs :HMI



Sys . Ack Comm-HMI [Operation / Status Display / Sys]

Only available if:


Signal: Acknowledge latched communication (SCADA) signals :HMI

Sys . Ack TripCmd-HMI [Operation / Status Display / Sys]

Signal: Reset Trip Command :HMI

Sys . Ack LED-Comm [Operation / Status Display / Sys]

Only available if:


Signal: LEDs Acknowledgment :Communication

Sys . Ack RO-Comm [Operation / Status Display / Sys]

Only available if:


Signal: Acknowledgment of the Relay Outputs :Communication

Sys . Ack Counter-Comm [Operation / Status Display / Sys]

Only available if:


Signal: Reset of all Counters :Communication

Sys . Ack Comm-Comm [Operation / Status Display / Sys]

Only available if:


Signal: Acknowledge latched communication (SCADA) signals :Communication



Sys . Ack TripCmd-Comm [Operation / Status Display / Sys]

Only available if:


Signal: Reset Trip Command :Communication

4.5 Sys: Values

Sys . Operating hours Cr [Operation / Count and RevData / Sys]

Operating hours counter of the protective device

Sys . DM version [Device Para / Version]

3.5.b 3.5.b

╚═▷ .

Version of the device model

Sys . SW version [Device Para / Version]

Version of the device firmware

Sys . Build [Device Para / Version]

Build Number

Sys . CAT No [Device Para / Version]

»CAT No.« (Catalog Number) as printed on the nameplate of the device.

Sys . REV. [Device Para / Version]

Revision (as printed on the nameplate of the device).

Sys . S/N [Device Para / Version]

The serial number of the device.


4 System4.5 Sys: Values

5 Measured Values

5.1 EBR-ZMeasured values of the High-Impedance Module. The current flow through the EBR-Z ismeasured and scaled (and displayed) as voltage values.

5.1.1 EBR-Z: Values

EBR-Z . 87VA [Operation / Measured Values / EBR-Z]

Measured value: Voltage at the Resistor of the High-Impedance Module, Phase A

EBR-Z . 87VB [Operation / Measured Values / EBR-Z]

Measured value: Voltage at the Resistor of the High-Impedance Module, Phase B

EBR-Z . 87VC [Operation / Measured Values / EBR-Z]

Measured value: Voltage at the Resistor of the High-Impedance Module, Phase C

EBR-Z . phi 87VA [Operation / Measured Values / EBR-Z]

Measured value (calculated): Angle of Phasor 87VA

Reference phasor is required to calculate the angle.

EBR-Z . phi 87VB [Operation / Measured Values / EBR-Z]

Measured value (calculated): Angle of Phasor 87VB


EBR-Z . phi 87VC [Operation / Measured Values / EBR-Z]

Measured value (calculated): Angle of Phasor 87VC



5 Measured Values5.1 EBR-Z

5.1.2 EBR-Z: Statistical Values

EBR-Z . 87VA max [Operation / Statistics / Max]

Measured value: Voltage at the Resistor of the High-Impedance Module, VA maximum value

EBR-Z . 87VB max [Operation / Statistics / Max]

Measured value: Voltage at the Resistor of the High-Impedance Module, VB maximum value

EBR-Z . 87VC max [Operation / Statistics / Max]

Measured value: Voltage at the Resistor of the High-Impedance Module, VC maximum value


5 Measured Values5.1 EBR-Z


5 Measured Values

6 StatisticsStatistics

6.1 Statistics: Global Parameters

Statistics . ResFc Max [Device Para / Statistics / Max]



S.3

Resetting of all Maximum values

6.2 Statistics: Direct Controls

Statistics . ResFc Max [Operation / Reset]


╚═▷ Mode.

P.1

Resetting of all Maximum values

6.3 Statistics: Signals (Output States)

Statistics . ResFc Max [Operation / Status Display / Statistics]

Signal: Resetting of all Maximum values

6.4 Statistics: Counters

Statistics . Res Cr Max values [Operation / Statistics / Max]

Number of resets since last booting. The timestamp shows date and time of the last reset.


6 Statistics6.1 Statistics: Global Parameters


6 Statistics

7 CommunicationSCADA Communication

7.1 SCADA: Device Planning Parameters

SCADA . Protocol [Device Planning]

“-” “-”  . . .  Profibus


S.3

Select the SCADA protocol to be used.

7.2 SCADA: Signals (Output States)

SCADA . Comm connected [Operation / Status Display / SCADA]

At least one Communication system is connected to the device.

SCADA . Comm not connected [Operation / Status Display / SCADA]

No Communication system is connected to the device.


7 Communication7.1 SCADA: Device Planning Parameters

7.3 DNPDistributed Network Protocol

7.3.1 DNP: Global Parameters

DNP . Function [Device Para / DNP / Communication]


╚═▷ Mode.

S.3


DNP . IP Port Number [Device Para / DNP / Communication]

20000

Only available if:

• SCADA . Protocol = DNP TCP• SCADA . Protocol = DNP UDP

0  . . .  65535 S.3

IP Port Number.

In general it is recommended to keep the default value. if this is not possible then select a numberout of the private range 49152-52151 or 52162-65535 that is not yet in use within your network.

DNP . Baud rate [Device Para / DNP / Communication]

19200

Only available if:

• SCADA . Protocol = DNP RTU

1200  . . .  115200

╚═▷ Baud rate.

S.3

Baud rate for communication

DNP . Frame Layout [Device Para / DNP / Communication]

8E1

Only available if:

• SCADA . Protocol = DNP RTU

8E1, 8O1, 8N1, 8N2

╚═▷ Byte Frame.

S.3

Frame Layout


7 Communication7.3 DNP

DNP . Optical rest position [Device Para / DNP / Communication]

Light on


Light off, Light on

╚═▷ Optical rest position.

S.3

Optical rest position

DNP . SelfAddress [Device Para / DNP / Communication]


╚═▷ Mode.

S.3

Support of self (automatic) addresses

DNP . DataLink confirm [Device Para / DNP / Communication]

Never Never, Always, On_Large

╚═▷ Communication Start Variants.

S.3

Enables or disables the data layer confirmation (ack).

DNP . t-DataLink confirm [Device Para / DNP / Communication]

1s 0.1s  . . .  10.0s S.3

Data layer confirmation timeout

DNP . DataLink num retries [Device Para / DNP / Communication]

3 0  . . .  255 S.3

Number of repetition of data link packet sending after failing

DNP . Direction Bit [Device Para / DNP / Communication]


╚═▷ Mode.

S.3

Enables Direction Bit functionality. The Direction Bit is 0 for SlaveStation and 1 for MasterStation

DNP . Max Frame Size [Device Para / DNP / Communication]

255 64  . . .  255 S.3

This value is used to limit the net Frame Size



DNP . Test Link Period [Device Para / DNP / Communication]

0s 0.0s  . . .  120.0s S.3

This value specifies the time period when to send a Test Link-Frame

DNP . AppLink confirm [Device Para / DNP / Communication]

Always Never, Always, Event

╚═▷ _AL_ResponseType_k.

S.3

Determines if the device will request that the Application Layer response be confirmed or not

DNP . t-AppLink confirm [Device Para / DNP / Communication]

5s 0.1s  . . .  10.0s S.3

Application layer response timeout

DNP . AppLink num retries [Device Para / DNP / Communication]

0 0  . . .  255 S.3

The number of times the device will retransmit an Application Layer fragment

DNP . Unsol Reporting [Device Para / DNP / Communication]

Only available if:

• SCADA . Protocol ≠ DNP UDP

Else:

• visible

Inactive, Active

╚═▷ Mode.

S.3

Enables unsolicited reporting. This is available only for DNP3 TCP connections, and for DNP3 RTU incase of a peer-to-peer connection.

DNP . Unsol Reporting Timeout [Device Para / DNP / Communication]

10s

Only available if:


1.0s  . . .  60.0s S.3

Set the amount of time that the outstation will wait for an Application Layer confirmation back fromthe master indicating that the master received the unsolicited response message.



DNP . Unsol Reporting Retry [Device Para / DNP / Communication]

2

Only available if:


0  . . .  255 S.3

Set the number of retries that an outstation transmits in each unsolicited response series if it doesnot receive confirmation back from the master.

DNP . TestSeqNo [Device Para / DNP / Communication]


╚═▷ Mode.

S.3

Test if sequence number of request is incremented. If it is not correctly incremented the requestwill be ignored. It is recommended to have it inactive but some older DNP implementations need itactivated.

DNP . TestSBO [Device Para / DNP / Communication]


╚═▷ Mode.

S.3

It enables a stricter comparing of SBO and operate command. For older DNP versions it isrecommanded to deactivated it.

DNP . Timeout SBO [Device Para / DNP / Communication]

30s 1.0s  . . .  60.0s S.3

DNP Outputs can be controlled in a two stage procedure (SBO: Select Before Operate). Theseoutputs are to be selected first by a select command. After this the bit is reserved for this operaterequest. When this timer is expired, the bit will be released.

DNP . ColdRestart [Device Para / DNP / Communication]


╚═▷ Mode.

S.3

Enables support for Cold Restart function.



DNP . Deadb integr time [Device Para / DNP / Communication]

1 0  . . .  300 S.3

Deadband integration time.

DNP . BinaryInput 0

 . . . 

DNP . BinaryInput 63

[Device Para / DNP / Point map / Binary Inputs]



S.3

Virtual Digital Input (DNP). This corresponds to a virtual binary output of the protective device.

DNP . DoubleBitInput 0

 . . . 

DNP . DoubleBitInput 5

[Device Para / DNP / Point map / Double Bit Inputs]

“-” “-”, 86[1] . Pos, 86[2] . Pos


S.3

Double Bit Digital Input (DNP). This corresponds to a double bit binary output of the protectivedevice.

DNP . BinaryCounter 0

 . . . 

DNP . BinaryCounter 7

[Device Para / DNP / Point map / BinaryCounter]

“-” “-”, Prot . FaultNo, Prot . No of GridFaults, 86[1] .TripCmd Cr, 86[2] . TripCmd Cr, Sys . Operating hours Cr


S.3

Counter can be used to report counter values to the DNP master.



DNP . Analog value 0

 . . . 

DNP . Analog value 31

[Device Para / DNP / Point map / Analog Input]

“-” “-”, EBR-Z . 87VA, EBR-Z . 87VB, EBR-Z . 87VC

╚═▷ 1..n, TrendRecList.

S.3

Analog value can be used to report values to the master (DNP)

DNP . Scale Factor 0

 . . . 

DNP . Scale Factor 31


1 0.001  . . .  1000000

╚═▷ Scale Factor.

S.3

The scale factor is used to convert the measured value in an integer format

DNP . Dead Band 0

 . . . 

DNP . Dead Band 31


1% 0.01%  . . .  100.00% S.3

If a change of measured value is greater than the deadband value it will be reported to the master.

7.3.2 DNP: Direct Controls

DNP . Res all Diag Cr [Operation / Count and RevData / DNP]

[Operation / Reset]


╚═▷ Mode.

S.3

Reset all diagnosis counters



DNP . Slave Id [Device Para / DNP / Communication]

1 0  . . .  65519 S.3

SlaveId defines the DNP3 address of this device (Outstation)

DNP . Master Id [Device Para / DNP / Communication]

65500 0  . . .  65519 S.3

MasterId defines the DNP3 address of master (SCADA)

7.3.3 DNP: Input States

DNP . BinaryInput0-I

 . . . 

DNP . BinaryInput63-I

[Operation / Status Display / DNP / Binary Inputs]

Virtual Digital Input (DNP). This corresponds to a virtual binary output of the protective device.

DNP . DoubleBitInput0-I

 . . . 

DNP . DoubleBitInput5-I

[Operation / Status Display / DNP / Double Bit Inputs]

Double Bit Digital Input (DNP). This corresponds to a double bit binary output of the protectivedevice.

7.3.4 DNP: Signals (Output States)

DNP . busy [Operation / Status Display / DNP / State]

This message is set if the protocol is started. It will be reset if the protocol is shut down.

DNP . ready [Operation / Status Display / DNP / State]

The message will be set if the protocol is successfully started and ready for data exchange.



DNP . active [Operation / Status Display / DNP / State]

The communication with the Master (SCADA) is active.

Note that for TCP/UDP, this state is permanently “Low” unless »DataLink confirm« is set to“Always”.

7.3.5 DNP: Counters

DNP . NReceived [Operation / Count and RevData / DNP]

Diagnostic counter: Number of received characters

DNP . NSent [Operation / Count and RevData / DNP]

Diagnostic counter: Number of sent characters

DNP . NBadFramings [Operation / Count and RevData / DNP]

Diagnostic counter: Number of bad framings. A large number indicates a disturbed serialconnection.

DNP . NBadParities [Operation / Count and RevData / DNP]

Diagnostic counter: Number of parity errrors. A large number indicates a disturbed serialconnection.

DNP . NBreakSignals [Operation / Count and RevData / DNP]

Diagnostic counter: Number of break signals. A large number indicates a disturbed serialconnection.

DNP . NBadChecksum [Operation / Count and RevData / DNP]

Diagnostic counter: Number of frames received with bad checksum.



7.4 ModbusModbus

7.4.1 Modbus: Global Parameters

Modbus . t-call [Device Para / Modbus / Communication / General Settings]

10s 1s  . . .  3600s S.3

If there is no request message sent from Communication to the device after expiry of this time, thedevice concludes a communication failure within the Communication system.

Modbus . Comm CmdBlo [Device Para / Modbus / Communication / General Settings]


╚═▷ Mode.

S.3

Activating (allowing)/ Deactivating (disallowing) the blocking of the Communication Commands

Modbus . Disable Latching [Device Para / Modbus / Communication / General Settings]


╚═▷ Mode.

S.3

Disable Latching: If this parameter is active (true), none of the Modbus states will be latched. Thatmeans that trip signals wont be latched by Modbus.

Modbus . AllowGap [Device Para / Modbus / Communication / General Settings]


╚═▷ Mode.

S.3

If this parameter is active (True), the User can request a set of modbus register without getting anexception, because of invalid address in the requested array. The invalid addresses have a specialvalue 0xFAFA, but the User is responsible for ignoring invalid addresses. Attention: This specialvalue can be valid, if address is valid.

Modbus . Optical rest position [Device Para / Modbus / Communication / General Settings]

Light on


Light off, Light on

╚═▷ Optical rest position.

S.3



7 Communication7.4 Modbus

Modbus . Unit ID [Device Para / Modbus / Communication / TCP]

255

Only available if:

• SCADA . Protocol = Modbus TCP• SCADA . Protocol = Modbus

TCP/RTU

1  . . .  255 S.3

The Unit Identifier is used for routing. This parameter is to be set, if a Modbus RTU and a ModbusTCP network should be coupled.

Modbus . TCP Port Config [Device Para / Modbus / Communication / TCP]

Default

Only available if:


TCP/RTU

Default, Private

╚═▷ Port selection.

S.3

TCP Port Configuration. This parameter is to be set only if the default Modubs TCP Port should notbe used.

Modbus . Port [Device Para / Modbus / Communication / TCP]

502

Only available if:


TCP/RTU

If: Modbus . TCP Port Config = Default

• 502  . . .  502

If: Modbus . TCP Port Config = Private

• 49152  . . .  65535

S.3

IP Port Number.

In general it is recommended to keep the default value. if this is not possible then select a numberout of the private range 49152-52151 or 52162-65535 that is not yet in use within your network.



Modbus . Slave ID [Device Para / Modbus / Communication / RTU]

1

Only available if:

• SCADA . Protocol = Modbus RTU• SCADA . Protocol = Modbus

TCP/RTU

1  . . .  247 S.3

Device address (Slave ID) within the bus system. Each device address has to be unique within abus system.

Modbus . t-timeout [Device Para / Modbus / Communication / RTU]

1s

Only available if:


TCP/RTU

0.01s  . . .  10.00s S.3

Within this time the answer has to be received by the Communication system, otherwise therequest will be disregarded. In that case, the Communication system detects a communicationfailure and the Communication System has to send a new request.

Modbus . Baud rate [Device Para / Modbus / Communication / RTU]

19200

Only available if:


TCP/RTU

1200, 2400, 4800, 9600, 19200, 38400


S.3

Baud rate



Modbus . Physical Settings [Device Para / Modbus / Communication / RTU]

8E1

Only available if:


TCP/RTU

8E1, 8O1, 8N1, 8N2

╚═▷ Byte Frame.

S.3

Digit 1: Number of bits. Digit 2: E=even parity, O=odd parity, N=no parity. Digit 3: Number of stopbits. More information on the parity: It is possible that the last data bit is followed by a parity bitwhich is used for recognition of communication errors. The parity bit ensures that with even parity("EVEN") always an even number of bits with valence "1" or with odd parity ("ODD") an oddnumber of "1" valence bits are transmitted. But it is also possible to transmit no parity bits (herethe setting is "Parity = None"). More information on the stop-bits: The end of a data byte isterminated by the stop-bits.

Modbus . Config Bin Inp1 [Device Para / Modbus / Configb Registers / States]

SSV . System Error “-”  . . .  Sys . Internal test state


S.3

Virtual Digital Input. This corresponds to a virtual binary output of the protective device.

Modbus . Latched Config Bin Inp1

 . . . 

Modbus . Latched Config BinInp32

[Device Para / Modbus / Configb Registers / States]


╚═▷ Mode.

S.3

Latched Configurable Binary Input


Prot . Pickup “-”  . . .  Sys . Internal test state


S.3





Prot . Trip “-”  . . .  Sys . Internal test state


S.3


Modbus . Latched Config Bin Inp3 [Device Para / Modbus / Configb Registers / States]


╚═▷ Mode.

S.3

Latched Configurable Binary Input

Modbus . Config Bin Inp4

 . . . 

Modbus . Config Bin Inp32

[Device Para / Modbus / Configb Registers / States]



S.3



Sgen . Running “-”  . . .  Sys . Internal test state


S.3


Modbus . Mapped Meas 1

 . . . 


[Device Para / Modbus / Configb Registers / MeasuredValues]

“-” “-”, EBR-Z . 87VA, EBR-Z . 87VB, EBR-Z . 87VC


S.3

Mapped Measured Values. They can be used to provide measured values to the Modbus Master.



7.4.2 Modbus: Direct Controls

Modbus . Res Diagn Cr [Operation / Reset]


╚═▷ Mode.

P.1

All Modbus Diagnosis Counters will be reset.

Modbus . PowerPort-E via Modbus [Device Para / Security / Communication]


╚═▷ Mode.

P.1

Activate (allow) or inactivate (disallow) the PowerPort-E access via the Modbus tunnel.

7.4.3 Modbus: Input States

Modbus . Config Bin Inp1-I

 . . . 

Modbus . Config Bin Inp32-I

[Operation / Status Display / Modbus / Configb Registers]

State of the module input: Config Bin Inp

7.4.4 Modbus: Signals (Output States)

Modbus . Transmission RTU [Operation / Status Display / Modbus / State]

Only available if:

• SCADA . Protocol = Modbus RTU• SCADA . Protocol = Modbus TCP/RTU

Signal: Communication Active



Modbus . Transmission TCP [Operation / Status Display / Modbus / State]

Only available if:

• SCADA . Protocol = Modbus TCP• SCADA . Protocol = Modbus TCP/RTU


Modbus . Device Type [Operation / Status Display / Modbus / State]

Device Type: Eaton:

EDR-3000 - 2

EDR-5000 - 3

EMR-3000 - 4

EMR-4000 - 5

EMR-5000 - 6

ETR-4000 - 8

ETR-5000 - 9

EGR-5000 - 12

EBR-3000 - 13

Modbus . Comm Version [Operation / Status Display / Modbus / State]

Modbus Communication version. This version number changes if something becomes incompatiblebetween different Modbus releases.

Modbus . Comm Cmd 1

 . . . 

Modbus . Comm Cmd 16

[Operation / Status Display / Modbus / Commands]

Communication Command



7.4.5 Modbus: Values


 . . . 


[Operation / Count and RevData / Modbus / MeasuredValues]

Mapped Measured Values. They can be used to provide measured values to the Modbus Master.

7.4.6 Modbus: Counters

Modbus . NoOfRequestsTotal [Operation / Count and RevData / Modbus / TCP]

[Operation / Count and RevData / Modbus / RTU]

Only available if:


Total number of requests. Includes requests for other slaves.

Modbus . NoOfRequestsForMe [Operation / Count and RevData / Modbus / TCP]


Only available if:


Total Number of requests for this slave.

Modbus . NoOfResponse [Operation / Count and RevData / Modbus / TCP]

Only available if:


Total number of requests having been responded.



Modbus . NoOfQueryInvalid [Operation / Count and RevData / Modbus / TCP]


Only available if:


Total Number of Request errors. Request could not be interpreted

Modbus . NoOfInternalError [Operation / Count and RevData / Modbus / TCP]


Only available if:


Total Number of Internal errors while interpreting the request.

Modbus .NoOfResponsTimeOverruns


Only available if:


Total number of requests with exceeded response time. Physically corrupted Frame.

Modbus . NoOfOverrunErros [Operation / Count and RevData / Modbus / RTU]

Only available if:


Total Number of Overrun Failures. Physically corrupted Frame.

Modbus . NoOfParityErrors [Operation / Count and RevData / Modbus / RTU]

Only available if:


Total number of parity errors. Physically corrupted Frame.



Modbus . NoOfFrameErrors [Operation / Count and RevData / Modbus / RTU]

Only available if:


Total Number of Frame Errors. Physically corrupted Frame.

Modbus . NoOfBreaks [Operation / Count and RevData / Modbus / RTU]

Only available if:


Number of detected communication aborts



7.5 IEC61850IEC61850

7.5.1 IEC61850: Global Parameters

IEC61850 . Function [Device Para / IEC61850]


╚═▷ 1..n, OnOffList.

S.3


IEC61850 . Deadb integr time [Device Para / IEC61850]

0 0  . . .  300 S.3

Deadband integration time.

7.5.2 IEC61850: Direct Controls

IEC61850 . ResetStatistic [Operation / Reset]


╚═▷ Mode.

P.1

Reset of all IEC61850 diagnostic counters

7.5.3 IEC61850: Signals (Output States)

IEC61850 . MMS Client connected [Operation / Status Display / IEC61850 / State]

At least one MMS client is connected to the device

IEC61850 . All Goose Subscriberactive

[Operation / Status Display / IEC61850 / State]

All Goose subscriber in the device are working


7 Communication7.5 IEC61850

IEC61850 . SPCSO1

 . . . 

IEC61850 . SPCSO32

[Operation / Status Display / IEC61850 / ControlInputs]

Status bit that can be set by clients like e.g. the Master Communication System (Single PointControllable Status Output).

IEC61850 . VirtInp1

 . . . 

IEC61850 . VirtInp32

[Operation / Status Display / IEC61850 / VirtualInput]

Signal: Virtual Input (IEC61850 GGIO Ind)

IEC61850 . Quality of GGIO In1

 . . . 

IEC61850 . Quality of GGIO In32

[Operation / Status Display / IEC61850 / VirtualInput]

Self-Supervision of the GGIO Input

7.5.4 IEC61850: Values

IEC61850 . GoosePublisherState [Operation / Status Display / IEC61850 / State]

Off Off, On, Error

╚═▷ State.

State of the GOOSE Publisher (on or off)

IEC61850 . GooseSubscriberState [Operation / Status Display / IEC61850 / State]

Off Off, On, Error

╚═▷ State.

State of the GOOSE Subscriber (on or off)



IEC61850 . MmsServerState [Operation / Status Display / IEC61850 / State]

Off Off, On, Error

╚═▷ State.

State of MMS Server (on or off)

7.5.5 IEC61850: Counters

IEC61850 . NoOfGooseRxAll [Operation / Count and RevData / IEC61850]

Total number of received GOOSE messages including messages for other devices (subscribed andnot subscribed messages).

IEC61850 .NoOfGooseRxSubscribed

[Operation / Count and RevData / IEC61850]

Total Number of subscribed GOOSE messages including messages with incorrect content.

IEC61850 . NoOfGooseRxCorrect [Operation / Count and RevData / IEC61850]

Total Number of subscribed and correctly received GOOSE messages.

IEC61850 . NoOfGooseRxNew [Operation / Count and RevData / IEC61850]

Number of subscribed and correctly received GOOSE messages with new content.

IEC61850 . NoOfGooseTxAll [Operation / Count and RevData / IEC61850]

Total Number of GOOSE messages that have been published by this device.

IEC61850 . NoOfGooseTxNew [Operation / Count and RevData / IEC61850]

Total Number of new GOOSE messages (modified content) that have been published by this device.

IEC61850 .NoOfServerRequestsAll


Total number of MMS Server requests including incorrect requests.

IEC61850 . NoOfDataReadAll [Operation / Count and RevData / IEC61850]

Total Number of values read from this device including incorrect requests.



IEC61850 . NoOfDataReadCorrect [Operation / Count and RevData / IEC61850]

Total Number of correctly read values from this device.

IEC61850 . NoOfDataWrittenAll [Operation / Count and RevData / IEC61850]

Total Number of values written by this device including incorrect ones.

IEC61850 .NoOfDataWrittenCorrect


Total Number of correctly written values by this device.

IEC61850 .NoOfDataChangeNotification


Number of detected changes within the datasets that are published with GOOSE messages.

IEC61850 . No of ClientConnections


Number of active MMS client connections



7.5.6 IEC 61850 Output Mapping

7.5.6.1 IEC61850: Global Parameters

IEC61850 . VirtualOutput1

 . . . 

IEC61850 . VirtualOutput32

[Device Para / IEC61850]



S.3

Virtual Output. This signal can be assigned or visualized via the SCD file to other devices within theIEC61850 substation.

7.5.6.2 IEC61850: Input States

IEC61850 . VirtOut1-I

 . . . 

IEC61850 . VirtOut32-I

[Operation / Status Display / IEC61850 / VirtualOutput]

Module input state: Binary state of the Virtual Output (GGIO)



7.6 ProfibusProfibus Module

7.6.1 Profibus: Global Parameters

Profibus . Slave ID [Device Para / Profibus / Bus parameters]

2 2  . . .  125 S.3

Device address (Slave ID) within the bus system. Each device address has to be unique within abus system.

Profibus . Config Bin Inp 1

 . . . 

Profibus . Config Bin Inp 32

[Device Para / Profibus / Config Bin Inp 1-16]




S.3


Profibus . Latched 1

 . . . 

Profibus . Latched 32



Inactive

Only available if:

• Profibus . Config Bin Inp 1 ≠ “-”

Inactive, Active

╚═▷ Mode.

S.3

Defines whether the Input is latched.


7 Communication7.6 Profibus

7.6.2 Profibus: Direct Controls

Profibus . Reset Comds [Operation / Reset]


╚═▷ Mode.

P.1

All Profibus Commands will be reset.

7.6.3 Profibus: Input States

Profibus . Assignment 1-I

 . . . 

Profibus . Assignment 32-I

[Operation / Status Display / Profibus / Config Bin Inp 1-16]

[Operation / Status Display / Profibus / Config Bin Inp 17-32]

Module input state: Comm Assignment

7.6.4 Profibus: Signals (Output States)

Profibus . Data OK [Operation / Status Display / Profibus / State]

Data within the input field are OK (Yes=1)

Profibus . SubModul Err [Operation / Status Display / Profibus / State]

Assignable Signal, Failure in Sub-Module, Communication Failure.

Profibus . Connection active [Operation / Status Display / Profibus / State]

Connection active



Profibus . Comm Cmd 1

 . . . 

Profibus . Comm Cmd 16

[Operation / Status Display / Profibus / Commands]

Communication Command

7.6.5 Profibus: Values

Profibus . Slave State [Operation / Status Display / Profibus / State]

Baud Search Baud Search  . . .  Data exchange

╚═▷ State.

Communication State between slave and master.

Profibus . Baud rate [Operation / Status Display / Profibus / State]

-.- 12 Mb/s  . . .  -.-


The baud rate that has been detected lastly, will still be shown after a connection issue.

Profibus . PNO Id [Operation / Status Display / Profibus / State]

0C50h 0C50h

╚═▷ PNO Id.

PNO Identification Number. GSD Identification Number.

7.6.6 Profibus: Counters

Profibus . Master ID [Operation / Status Display / Profibus / State]

Device address (Master ID) within the bus system. Each device address has to be unique within abus system.

Profibus . HO Id PSub [Operation / Status Display / Profibus / State]

Handoff Id of PbSub



Profibus . t-WatchDog [Operation / Status Display / Profibus / State]

The Profibus Chip detects a communication issue if this timer is expired without anycommunication (Parametrizing telegram).

Profibus . Fr Sync Err [Operation / Count and RevData / Profibus]

Frames, that were sent from the master to the slave are faulty.

Profibus . crcErrors [Operation / Count and RevData / Profibus]

Number of CRC errors that the ss manager has recognized in received response frames from ss(each error caused a subsystem reset)

Profibus . frLossErrors [Operation / Count and RevData / Profibus]

Number of frame loss errors that the ss manager recognized in received response frames from ss(each error caused a subsystem reset)

Profibus . ssCrcErrors [Operation / Count and RevData / Profibus]

Number of CRC errors that the subsystem has recognized in received trigger frames from host

Profibus . ssResets [Operation / Count and RevData / Profibus]

Number of subsystem resets/restarts from ss manager



7.7 IRIG-BIRIG-B Module

7.7.1 IRIG-B: Device Planning Parameters

IRIG-B . Mode [Device Planning]

“-” “-”, Use

╚═▷ Mode.

S.3


7.7.2 IRIG-B: Global Parameters

IRIG-B . Function [Device Para / Time / TimeSync / IRIG-B]


╚═▷ Mode.

S.3


IRIG-B . IRIG-B00X [Device Para / Time / TimeSync / IRIG-B]

IRIGB-000 IRIGB-000  . . .  IRIGB-007

╚═▷ IRIG-B00X.

S.3

Determination of the Type: IRIG-B00X. IRIG-B types differ in types of included “Coded Expressions”(year, control-functions, straight-binary-seconds).


7 Communication7.7 IRIG-B

7.7.3 IRIG-B: Direct Controls

IRIG-B . Res IRIG-B Cr [Operation / Reset]


╚═▷ Mode.

P.1

Resetting of the Diagnosis Counters: IRIG-B

7.7.4 IRIG-B: Signals (Output States)

IRIG-B . IRIG-B active [Operation / Status Display / TimeSync / IRIG-B]

Signal: If there is no valid IRIG-B signal for 60 sec, IRIG-B is regarded as inactive.

IRIG-B . High-Low Invert [Operation / Status Display / TimeSync / IRIG-B]

Signal: The High and Low signals of the IRIG-B are inverted. This does NOT mean that the wiring isfaulty. If the wiring is faulty no IRIG-B signal will be detected.

IRIG-B . Control Signal1

 . . . 

IRIG-B . Control Signal18

[Operation / Status Display / TimeSync / IRIG-B]

Signal: IRIG-B Control Signal. The external IRIG-B generator can set these signals. They can be usedfor further control procedures inside the device (e.g. logic funtions).

7.7.5 IRIG-B: Counters

IRIG-B . NoOfFramesOK [Operation / Count and RevData / TimeSync / IRIG-B]

Total number valid Frames.

IRIG-B . NoOfFrameErrors [Operation / Count and RevData / TimeSync / IRIG-B]

Total Number of Frame Errors. Physically corrupted Frame.



IRIG-B . Edges [Operation / Count and RevData / TimeSync / IRIG-B]

Edges: Total number of rising and falling edges. This signal indicates if a signal is available at theIRIG-B input.



7.8 SNTPSNTP-Module

7.8.1 SNTP: Device Planning Parameters

SNTP . Mode [Device Planning]

“-” “-”, Use

╚═▷ Mode.

S.3


7.8.2 SNTP: Global Parameters



╚═▷ Mode.

S.3

Server 1

SNTP . IP Byte1

 . . . 

SNTP . IP Byte4

[Device Para / Time / TimeSync / SNTP]

0 0  . . .  255 S.3

IP1.IP2.IP3.IP4



╚═▷ Mode.

S.3

Server 2


7 Communication7.8 SNTP

7.8.3 SNTP: Direct Controls

SNTP . Res Counter [Operation / Reset]


╚═▷ Mode.

P.1

Reset all Counters.

7.8.4 SNTP: Signals (Output States)

SNTP . SNTP active [Operation / Status Display / TimeSync / SNTP]

Signal: If there is no valid SNTP signal for 120 sec, SNTP is regarded as inactive.

7.8.5 SNTP: Values

SNTP . Used Server [Operation / Status Display / TimeSync / SNTP]

None Server1, Server2 , None

╚═▷ Server State.

Which Server is used for SNTP synchronization.

SNTP . PrecServer1 [Operation / Status Display / TimeSync / SNTP]

Precision of Server 1

SNTP . PrecServer2 [Operation / Status Display / TimeSync / SNTP]

Precision of Server 2

SNTP . ServerQlty [Operation / Status Display / TimeSync / SNTP]

“-” GOOD, SUFFICIENT, BAD, “-”

╚═▷ State.

Quality of Server used for Synchronization (GOOD, SUFFICIENT, BAD)



SNTP . NetConn [Operation / Status Display / TimeSync / SNTP]

“-” GOOD, SUFFICIENT, BAD, “-”

╚═▷ State.

Quality of Network Connection (GOOD, SUFFICIENT, BAD).

7.8.6 SNTP: Counters

SNTP . StratumServer1 [Operation / Status Display / TimeSync / SNTP]

Stratum of Server 1

SNTP . StratumServer2 [Operation / Status Display / TimeSync / SNTP]

Stratum of Server 2

SNTP . NoOfSyncs [Operation / Count and RevData / TimeSync / SNTP]

Total Number of Synchronizations.

SNTP . NoOfConnectLost [Operation / Count and RevData / TimeSync / SNTP]

Total Number of lost SNTP Connections (no sync for 120 sec).

SNTP . NoOfSmallSyncs [Operation / Count and RevData / TimeSync / SNTP]

Service counter: Total Number of very small Time Corrections.

SNTP . NoOfNormSyncs [Operation / Count and RevData / TimeSync / SNTP]

Service counter: Total Number of normal Time Corrections.

SNTP . NoOfBigSyncs [Operation / Count and RevData / TimeSync / SNTP]

Service counter: Total Number of big Time Corrections.

SNTP . NoOfFiltSyncs [Operation / Count and RevData / TimeSync / SNTP]

Service counter: Total Number of filtered Time Corrections.



SNTP . NoOfSlowTrans [Operation / Count and RevData / TimeSync / SNTP]

Service counter: Total Number of slow Transfers.

SNTP . NoOfHighOffs [Operation / Count and RevData / TimeSync / SNTP]

Service counter: Total Number of high Offsets.

SNTP . NoOfIntTimeouts [Operation / Count and RevData / TimeSync / SNTP]

Service counter: Total Number of internal timeouts.



7.9 TimeSyncTime synchronization

Date and Time [Device Para / Time / Date and Time]


(Re-)setting Date and Time

7.9.1 TimeSync: Global Parameters

TimeSync . Time Zones [Device Para / Time / Timezone]

UTC+0 London UTC+14 Kiritimati  . . .  UTC-11 Midway Islands

╚═▷ Time Zones.

S.3

Time Zones

TimeSync . DST offset [Device Para / Time / Timezone]

60min -180min  . . .  180min S.3

Difference to wintertime

TimeSync . DST manual [Device Para / Time / Timezone]


╚═▷ Mode.

S.3

Manual setting of the Daylight Saving Time

TimeSync . Summertime [Device Para / Time / Timezone]

Inactive

Only available if:

• TimeSync . DST manual= Active

Inactive, Active

╚═▷ Mode.

S.3

Daylight Saving Time


7 Communication7.9 TimeSync

TimeSync . Summertime m [Device Para / Time / Timezone]

March

Only available if:




S.3

Month of clock change summertime

TimeSync . Summertime d [Device Para / Time / Timezone]

Sunday

Only available if:



╚═▷ Date.

S.3

Day of clock change summertime

TimeSync . Summertime w [Device Para / Time / Timezone]

Last

Only available if:




S.3

Place of selected day in month (for clock change summertime)

TimeSync . Summertime h [Device Para / Time / Timezone]

2h

Only available if:


0h  . . .  23h S.3

Hour of clock change summertime



TimeSync . Summertime min [Device Para / Time / Timezone]

0min

Only available if:


0min  . . .  59min S.3

Minute of clock change summertime

TimeSync . Wintertime m [Device Para / Time / Timezone]

October

Only available if:




S.3

Month of clock change wintertime

TimeSync . Wintertime d [Device Para / Time / Timezone]

Sunday

Only available if:



╚═▷ Date.

S.3

Day of clock change wintertime

TimeSync . Wintertime w [Device Para / Time / Timezone]

Last

Only available if:




S.3

Place of selected day in month (for clock change wintertime)



TimeSync . Wintertime h [Device Para / Time / Timezone]

3h

Only available if:


0h  . . .  23h S.3

Hour of clock change wintertime

TimeSync . Wintertime min [Device Para / Time / Timezone]

0min

Only available if:


0min  . . .  59min S.3

Minute of clock change wintertime

TimeSync . TimeSync [Device Para / Time / TimeSync / TimeSync]

“-” “-”, IRIG-B . IRIG-B, SNTP . SNTP, Modbus . Modbus,DNP . DNP


S.3

Time synchronization

7.9.2 TimeSync: Signals (Output States)

TimeSync . synchronized [Operation / Status Display / TimeSync / TimeSync]

Clock is synchronized.



7.10 TcpIpTcpIp

TCP/IP config [Device Para / TCP/IP / TCP/IP config]


configuration of the TCP/IP protocol

7.10.1 TcpIp: Global Parameters

TcpIp . Keep Alive Time [Device Para / TCP/IP / Advanced Settings]

720s 1s  . . .  7200s S.3

Keep Alive Time is the duration between two keep alive transmissions in idle condition

TcpIp . Keep Alive Interval [Device Para / TCP/IP / Advanced Settings]

15s 1s  . . .  60s S.3

Keep Alive Interval is the duration between two successive keep alive retransmissions, if theacknowledgement to the previous keepalive transmission was not received.

TcpIp . Keep Alive Retry [Device Para / TCP/IP / Advanced Settings]

3 3  . . .  3 S.3

Keep alive retry is the number of retransmissions to be carried out before declaring that theremote end is not available.


7 Communication7.10 TcpIp


7 Communication

8 System SettingsSystem Para . f [System Para / General Settings]

60Hz 50Hz, 60Hz

╚═▷ fN.

S.3

Nominal frequency

Sys . Program Mode [System Para / General Settings]

- . Always - . Always  . . .  Logic . LE80.Out inverted

╚═▷ Program Mode.

P.2

Parameters can only be changed as long as this input is true. (This means the parameter settingsare locked when this input is false.)

Sys . Program Mode Bypass [System Para / General Settings]


╚═▷ Mode.

P.1

Short-period bypass of the Program Mode.


8 System Settings


8 System Settings

9 Protection ParameterModule General Protection

9.1 Prot: Global Parameters

Prot . ExBlo Fc [Protection Para / Global Prot Para / Prot]



P.2

Activate (allow) the external blocking of the global protection functionality of the device.

Prot . ExBlo1

Prot . ExBlo2

[Protection Para / Global Prot Para / Prot]



P.2

If external blocking of this module is activated (allowed), the global protection functionality of thedevice will be blocked if the state of the assigned signal becomes true.

9.2 Prot: Direct Controls

Prot . Res FaultNo a GridFaultNo [Operation / Reset]


╚═▷ Mode.

P.1

Resetting of fault number and grid fault number.

9.3 Prot: Input States

Prot . ExBlo1-I [Operation / Status Display / Prot]

Module Input State: External Blocking1


9 Protection Parameter9.1 Prot: Global Parameters

Prot . ExBlo2-I [Operation / Status Display / Prot]


9.4 Prot: Signals (Output States)

Prot . Active [Operation / Status Display / All Actives]

[Operation / Status Display / Prot]

Signal: Active

Prot . Pickup [Operation / Status Display / Pickups]


Signal: General Pickup

Prot . Trip [Operation / Status Display / Trips]


Signal: General Trip

Prot . Available [Operation / Status Display / Prot]

Signal: Protection is available.

Prot . ExBlo [Operation / Status Display / Prot]

Signal: External Blocking

Prot . Pickup Phase A [Operation / Status Display / Prot]

Signal: General Pickup Phase A

Prot . Pickup Phase B [Operation / Status Display / Prot]

Signal: General Pickup Phase B

Prot . Pickup Phase C [Operation / Status Display / Prot]

Signal: General Pickup Phase C


9 Protection Parameter9.4 Prot: Signals (Output States)

Prot . Trip Phase A [Operation / Status Display / Prot]

Signal: General Trip Phase A

Prot . Trip Phase B [Operation / Status Display / Prot]

Signal: General Trip Phase B

Prot . Trip Phase C [Operation / Status Display / Prot]

Signal: General Trip Phase C

Prot . Res FaultNo a GridFaultNo [Operation / Status Display / Prot]

Signal: Resetting of fault number and grid fault number.

Prot . FaultNo [Operation / Count and RevData / Prot]

Waveform No.

Prot . No of GridFaults [Operation / Count and RevData / Prot]

Number of grid fault: A grid fault, e.g. a short circuit, might cause several faults with trip andautoreclosing; in this case, the fault number counts each fault, but the grid fault number remainsthe same.


9 Protection Parameter9.4 Prot: Signals (Output States)

9.5 87[1]  . . .  87[3]Overcurrent Differential Protection

9.5.1 87[1]: Device Planning Parameters

87[1] . Mode [Device Planning]

Any phase (ABC) “-”, Any phase (ABC), 1-phase (A), 1-phase (B), 1-phase(C)

╚═▷ Device Planning.

S.3

Overcurrent Differential Protection, General Operation Mode

9.5.2 87[1]: Global Parameters

87[1] . ExBlo1

87[1] . ExBlo2

[Protection Para / Global Prot Para / Diff-Prot / 87[1]]



P.2

External blocking of the module, if blocking is activated (allowed) within a parameter set and if thestate of the assigned signal is true.

87[1] . ExBlo TripCmd [Protection Para / Global Prot Para / Diff-Prot / 87[1]]



P.2

External blocking of the Trip Command of the module/the element, if blocking is activated (allowed)within a parameter set and if the state of the assigned signal is true.

87[1] . Ex Rel. Check Zone [Protection Para / Global Prot Para / Diff-Prot / 87[1]]



P.2

External release of the zone check feature, if this is activated (allowed) within a parameter set andif the state of the assigned signal is true.


9 Protection Parameter9.5 87[1]  . . .  87[3]

87[1] . AdaptSet 1 [Protection Para / Global Prot Para / Diff-Prot / 87[1]]

“-” “-”  . . .  Sys . Maint Mode Inactive

╚═▷ AdaptSet.

P.2

Assignment Adaptive Parameter 1



╚═▷ AdaptSet.

P.2




╚═▷ AdaptSet.

P.2




╚═▷ AdaptSet.

P.2


9.5.3 87[1]: Setting Group Parameters

87[1] . Function [Protection Para / Set 1 / Diff-Prot / 87[1]]


╚═▷ Mode.

P.2




87[1] . ExBlo Fc [Protection Para / Set 1 / Diff-Prot / 87[1]]



P.2

Activate (allow) or inactivate (disallow) blocking of the module/element. This parameter is onlyeffective if a signal is assigned to the corresponding global protection parameter. If the signalbecomes true, those modules/elements are blocked that are parameterized "ExBlo Fc=active".

87[1] . Blo TripCmd [Protection Para / Set 1 / Diff-Prot / 87[1]]


╚═▷ Mode.

P.2

Permanent blocking of the Trip Command of the module/element.

87[1] . ExBlo TripCmd Fc [Protection Para / Set 1 / Diff-Prot / 87[1]]



P.2

Activate (allow) or inactivate (disallow) blocking of the module/element. This parameter is onlyeffective if a signal is assigned to the corresponding global protection parameter. If the signalbecomes true, those modules/elements are blocked that are parameterized "ExBlo TripCmdFc=active".

87[1] . Blo by 87SV [Protection Para / Set 1 / Diff-Prot / 87[1]]

“-” “-”, . 87SV[1], . 87SV[2], . 87SV[3]

╚═▷ Blo by 87SV.

P.2

Blocking of the 87 protection module in case of a pickup of the assigned instance of the 87SVsupervision.

87[1] . Ex Rel. Check Zone Fc [Protection Para / Set 1 / Diff-Prot / 87[1]]



P.2

Activate (allow) or inactivate (disallow) external release of the zone check. This parameter is onlyeffective if also a signal is assigned to the corresponding global protection parameter »Ex Rel.Check Zone«.



87[1] . V> [Protection Para / Set 1 / Diff-Prot / 87[1]]

200V

⟴ Adapt. Param.

40V  . . .  800V P.2

Pickup threshold of the module. The scaling of this threshold is in Volt because the modulemonitors the voltage at the internal resistor value of the High Impedance module EBR-Z.

87[1] . t-Delay [Protection Para / Set 1 / Diff-Prot / 87[1]]

0.00s

⟴ Adapt. Param.

0.00s  . . .  3000.00s P.2

Delay time between the signals »Pickup« and »Alarm«.

9.5.4 87[1]: Input States

87[1] . ExBlo1-I [Operation / Status Display / Diff-Prot / 87[1]]


87[1] . ExBlo2-I [Operation / Status Display / Diff-Prot / 87[1]]


87[1] . ExBlo TripCmd-I [Operation / Status Display / Diff-Prot / 87[1]]

Module Input State: External Blocking of the Trip Command

87[1] . Ex Rel. Check Zone-I [Operation / Status Display / Diff-Prot / 87[1]]

Module input state: External release of the zone check feature.

87[1] . AdaptSet1-I [Operation / Status Display / Diff-Prot / 87[1]]

Module Input State: Adaptive Parameter1









9.5.5 87[1]: Signals (Output States)

87[1] . Active [Operation / Status Display / All Actives]

[Operation / Status Display / Diff-Prot / 87[1]]

Signal: Active

87[1] . Pickup [Operation / Status Display / Pickups]


Signal: 87 protection has started.

87[1] . Trip [Operation / Status Display / Trips]


Signal: 87 protection has tripped.

87[1] . TripCmd [Operation / Status Display / TripCmds]


Signal: Trip Command

87[1] . ExBlo [Operation / Status Display / Diff-Prot / 87[1]]


87[1] . Blo TripCmd [Operation / Status Display / Diff-Prot / 87[1]]

Signal: Trip Command blocked



87[1] . ExBlo TripCmd [Operation / Status Display / Diff-Prot / 87[1]]

Signal: External Blocking of the Trip Command

87[1] . Pickup A [Operation / Status Display / Diff-Prot / 87[1]]

Only available if:

• 87[1] . Mode = Any phase (ABC)• 87[1] . Mode = 1-phase (A)

Signal: 87 protection has started (Phase A).

87[1] . Pickup B [Operation / Status Display / Diff-Prot / 87[1]]

Only available if:

• 87[1] . Mode = Any phase (ABC)• 87[1] . Mode = 1-phase (B)

Signal: 87 protection has started (Phase B).

87[1] . Pickup C [Operation / Status Display / Diff-Prot / 87[1]]

Only available if:

• 87[1] . Mode = Any phase (ABC)• 87[1] . Mode = 1-phase (C)

Signal: 87 protection has started (Phase C).

87[1] . Trip A [Operation / Status Display / Diff-Prot / 87[1]]

Only available if:

• 87[1] . Mode = Any phase (ABC)• 87[1] . Mode = 1-phase (A)

Signal: 87 protection has tripped (Phase A).

87[1] . Trip B [Operation / Status Display / Diff-Prot / 87[1]]

Only available if:

• 87[1] . Mode = Any phase (ABC)• 87[1] . Mode = 1-phase (B)

Signal: 87 protection has tripped (Phase B).



87[1] . Trip C [Operation / Status Display / Diff-Prot / 87[1]]

Only available if:

• 87[1] . Mode = Any phase (ABC)• 87[1] . Mode = 1-phase (C)

Signal: 87 protection has tripped (Phase C).

87[1] . Check Zone released [Operation / Status Display / Diff-Prot / 87[1]]

Signal: The zone check feature has been released.

87[1] . DefaultSet [Operation / Status Display / Diff-Prot / 87[1]]

Signal: Default Parameter Set

87[1] . AdaptSet 1 [Operation / Status Display / Diff-Prot / 87[1]]

Signal: Adaptive Parameter 1









9.6 87SV[1]  . . .  87SV[3]Open CT Supervision

9.6.1 87SV[1]: Device Planning Parameters

87SV[1] . Mode [Device Planning]

Any phase (ABC) “-”, Any phase (ABC), 1-phase (A), 1-phase (B), 1-phase(C)


S.3

Open CT Supervision, General Operation Mode

9.6.2 87SV[1]: Global Parameters

87SV[1] . ExBlo1

87SV[1] . ExBlo2

[Protection Para / Global Prot Para / Diff-Prot / 87SV[1]]



P.2


87SV[1] . AdaptSet 1 [Protection Para / Global Prot Para / Diff-Prot / 87SV[1]]


╚═▷ AdaptSet.

P.2




╚═▷ AdaptSet.

P.2



9 Protection Parameter9.6 87SV[1]  . . .  87SV[3]



╚═▷ AdaptSet.

P.2




╚═▷ AdaptSet.

P.2


9.6.3 87SV[1]: Setting Group Parameters

87SV[1] . Function [Protection Para / Set 1 / Diff-Prot / 87SV[1]]


╚═▷ Mode.

P.2


87SV[1] . ExBlo Fc [Protection Para / Set 1 / Diff-Prot / 87SV[1]]



P.2


87SV[1] . V> [Protection Para / Set 1 / Diff-Prot / 87SV[1]]

200V

⟴ Adapt. Param.

40V  . . .  800V P.2

Pickup threshold of the module. The scaling of this threshold is in Volt because the modulemonitors the voltage at the internal resistor value of the High Impedance module EBR-Z.



87SV[1] . t-Delay [Protection Para / Set 1 / Diff-Prot / 87SV[1]]

0.00s

⟴ Adapt. Param.

0.00s  . . .  25000.00s P.2

Delay time between the signals »Pickup« and »Alarm«.

9.6.4 87SV[1]: Input States

87SV[1] . AdaptSet1-I [Operation / Status Display / Diff-Prot / 87SV[1]]








87SV[1] . ExBlo1-I [Operation / Status Display / Diff-Prot / 87SV[1]]


87SV[1] . ExBlo2-I [Operation / Status Display / Diff-Prot / 87SV[1]]


9.6.5 87SV[1]: Signals (Output States)

87SV[1] . Active [Operation / Status Display / All Actives]

[Operation / Status Display / Diff-Prot / 87SV[1]]

Signal: Active



87SV[1] . Pickup [Operation / Status Display / Pickups]


Signal: 87SV supervision pickup.

87SV[1] . Alarm [Operation / Status Display / Pickups]


Signal: 87SV supervision alarm.

87SV[1] . ExBlo [Operation / Status Display / Diff-Prot / 87SV[1]]


87SV[1] . Pickup A [Operation / Status Display / Diff-Prot / 87SV[1]]

Only available if:

• 87SV[1] . Mode = Any phase (ABC)• 87SV[1] . Mode = 1-phase (A)

Signal: 87SV supervision pickup (Phase A).

87SV[1] . Pickup B [Operation / Status Display / Diff-Prot / 87SV[1]]

Only available if:

• 87SV[1] . Mode = Any phase (ABC)• 87SV[1] . Mode = 1-phase (B)

Signal: 87SV supervision pickup (Phase B).

87SV[1] . Pickup C [Operation / Status Display / Diff-Prot / 87SV[1]]

Only available if:

• 87SV[1] . Mode = Any phase (ABC)• 87SV[1] . Mode = 1-phase (C)

Signal: 87SV supervision pickup (Phase C).



87SV[1] . Alarm A [Operation / Status Display / Diff-Prot / 87SV[1]]

Only available if:

• 87SV[1] . Mode = Any phase (ABC)• 87SV[1] . Mode = 1-phase (A)

Signal: 87SV supervision alarm (Phase A).

87SV[1] . Alarm B [Operation / Status Display / Diff-Prot / 87SV[1]]

Only available if:

• 87SV[1] . Mode = Any phase (ABC)• 87SV[1] . Mode = 1-phase (B)

Signal: 87SV supervision alarm (Phase B).

87SV[1] . Alarm C [Operation / Status Display / Diff-Prot / 87SV[1]]

Only available if:

• 87SV[1] . Mode = Any phase (ABC)• 87SV[1] . Mode = 1-phase (C)

Signal: 87SV supervision alarm (Phase C).

87SV[1] . DefaultSet [Operation / Status Display / Diff-Prot / 87SV[1]]

Signal: Default Parameter Set

87SV[1] . AdaptSet 1 [Operation / Status Display / Diff-Prot / 87SV[1]]










9.7 ExP[1]  . . .  ExP[4]External Protection - Module

9.7.1 ExP[1]: Device Planning Parameters

ExP[1] . Mode [Device Planning]

“-” “-”, Use


S.3

External Protection - Module, General Operation Mode

9.7.2 ExP[1]: Global Parameters

ExP[1] . ExBlo1

ExP[1] . ExBlo2

[Protection Para / Global Prot Para / ExP / ExP[1]]



P.2


ExP[1] . ExBlo TripCmd [Protection Para / Global Prot Para / ExP / ExP[1]]



P.2

External blocking of the Trip Command of the module/the element, if blocking is activated (allowed)within a parameter set and if the state of the assigned signal is true.

ExP[1] . Alarm [Protection Para / Global Prot Para / ExP / ExP[1]]



P.2

Assignment for External Alarm


9 Protection Parameter9.7 ExP[1]  . . .  ExP[4]

ExP[1] . Trip [Protection Para / Global Prot Para / ExP / ExP[1]]



P.2

External trip of the Bkr. if the state of the assigned signal is true.

9.7.3 ExP[1]: Setting Group Parameters

ExP[1] . Function [Protection Para / Set 1 / ExP / ExP[1]]


╚═▷ Mode.

P.2


ExP[1] . ExBlo Fc [Protection Para / Set 1 / ExP / ExP[1]]



P.2


ExP[1] . Blo TripCmd [Protection Para / Set 1 / ExP / ExP[1]]


╚═▷ Mode.

P.2

Permanent blocking of the Trip Command of the module/element.



ExP[1] . ExBlo TripCmd Fc [Protection Para / Set 1 / ExP / ExP[1]]



P.2

Activate (allow) or inactivate (disallow) blocking of the module/element. This parameter is onlyeffective if a signal is assigned to the corresponding global protection parameter. If the signalbecomes true, those modules/elements are blocked that are parameterized "ExBlo TripCmdFc=active".

9.7.4 ExP[1]: Input States

ExP[1] . ExBlo1-I [Operation / Status Display / ExP / ExP[1]]


ExP[1] . ExBlo2-I [Operation / Status Display / ExP / ExP[1]]


ExP[1] . ExBlo TripCmd-I [Operation / Status Display / ExP / ExP[1]]

Module Input State: External Blocking of the Trip Command

ExP[1] . Alarm-I [Operation / Status Display / ExP / ExP[1]]

Module Input State: Alarm

ExP[1] . Trip-I [Operation / Status Display / ExP / ExP[1]]

Module Input State: Trip

9.7.5 ExP[1]: Signals (Output States)

ExP[1] . Active [Operation / Status Display / All Actives]

[Operation / Status Display / ExP / ExP[1]]

Signal: Active



ExP[1] . Alarm [Operation / Status Display / Pickups]


Signal: Alarm

ExP[1] . Trip [Operation / Status Display / Trips]


Signal: Trip

ExP[1] . TripCmd [Operation / Status Display / TripCmds]



ExP[1] . ExBlo [Operation / Status Display / ExP / ExP[1]]


ExP[1] . Blo TripCmd [Operation / Status Display / ExP / ExP[1]]

Signal: Trip Command blocked

ExP[1] . ExBlo TripCmd [Operation / Status Display / ExP / ExP[1]]

Signal: External Blocking of the Trip Command




9 Protection Parameter

10 ControlControl

Control Page [Control / Control Page]


Control Page

10.1 Ctrl: Device Planning Parameters

10.2 Ctrl: Direct Controls

Ctrl . Switching Authority [Control / General Settings]

Local None, Local, Remote, Local and Remote

╚═▷ Switching Authority.

C.2

Switching Authority

10.3 Ctrl: Signals (Output States)

Ctrl . Local [Operation / Status Display / Control / General Control]

Switching Authority: Local

Ctrl . Remote [Operation / Status Display / Control / General Control]

Switching Authority: Remote

Ctrl . SG Indeterm [Operation / Status Display / Control / General Control]

(At least one) Switch is moving (Position cannot be determined).

Ctrl . SG Disturb [Operation / Status Display / Control / General Control]

(At least one) Switch is disturbed.


10 Control10.1 Ctrl: Device Planning Parameters

Ctrl . CES SAuthority [Operation / Status Display / Control / General Control]

Command Execution Supervision: Switching Command not executed. No switching authority.

Ctrl . CES DoubleOperating [Operation / Status Display / Control / General Control]

Command Execution Supervision: A second switch command is in conflict with a pending one.


10 Control10.3 Ctrl: Signals (Output States)

10.4 86[1]Lockout Relay


86[1] . t-Move RESET [Control / 86[1] / General Settings]

0.1s 0.01s  . . .  100.00s C.2

This is the (maximum) duration for the RESET signal being kept active. (The RESET signal isdropped immediately when the position indicators recognize that the Lockout Relay has reachedthe RESET position, but at the latest after this time has elapsed.)

86[1] . t-Move TRIPPED [Control / 86[1] / General Settings]

0.1s 0.01s  . . .  100.00s C.2

This is the (maximum) duration for the TRIP signal being kept active. (The TRIP signal is droppedimmediately when the position indicators recognize that the Lockout Relay has reached theTRIPPED position, but at the latest after this time has elapsed.)

86[1] . t-TRIPCmd [Control / 86[1] / Trip Manager]

0.2s 0s  . . .  300.00s P.2

Minimum hold time of the TRIP-command (to the Lockout Relay)

86[1] . Latched [Control / 86[1] / Trip Manager]


╚═▷ Mode.

P.2

Defines whether the Trip Command is latched.

86[1] . Ack TripCmd [Control / 86[1] / Trip Manager]



P.2

Ack TripCmd


10 Control10.4 86[1]

86[1] . TRIP Cmd1 [Control / 86[1] / Trip Manager]

87[1] . TripCmd “-”  . . .  ExP[4] . TripCmd

╚═▷ 1..n, Trip Cmds.

P.2

TRIP command to the Lockout Relay if the state of the assigned signal becomes true.

86[1] . TRIP Cmd2

 . . . 

86[1] . TRIP Cmd10

[Control / 86[1] / Trip Manager]

“-” “-”  . . .  ExP[4] . TripCmd


P.2


86[1] . Cin NC [Control / 86[1] / Pos Indicatrs Wirng]

“-” “-”  . . .  DI-8P X1 . DI 8

╚═▷ 1..n, Dig Inputs.

C.2

Input contact: The Lockout Relay is in the RESET position if the state of the assigned signal is true.(The RESET position of the Lockout Relay is normally implemented by using the NC contact.)

86[1] . Cin NO [Control / 86[1] / Pos Indicatrs Wirng]

“-” “-”  . . .  DI-8P X1 . DI 8


C.2

Input contact: The Lockout Relay is in the TRIPPED position if the state of the assigned signal istrue. (The TRIPPED position of the Lockout Relay is normally implemented by using the NOcontact.)

86[1] . SC RESET [Control / 86[1] / Ex RESET/TRIP Cmd]

“-” “-”  . . .  Logic . LE80.Out inverted

╚═▷ 1..n, DI-LogicList.

C.2

Switch Command to RESET the Lockout-Relay, e.g. via digital input or logic.


10 Control10.4 86[1]

86[1] . SC TRIP [Control / 86[1] / Ex RESET/TRIP Cmd]



C.2

Switch Command to switch the Lockout-Relay to TRIPPED, e.g. via digital input or logic.

10.4.2 86[1]: Direct Controls

86[1] . Ack TripCmd [Operation / Reset]


╚═▷ Mode.

P.1

Acknowledge Trip Command


86[1] . Cin NC-I [Operation / Status Display / Control / 86[1]]

Module input state: This is the feedback signal indicating that the Lockout Relay is in the RESETposition. (This is normally implemented by using the NC contact.)

86[1] . Cin NO-I [Operation / Status Display / Control / 86[1]]

Module input state: This is the feedback signal indicating that the Lockout Relay is in the TRIPPEDposition. (This is normally implemented by using the NO contact.)

86[1] . Ack TripCmd-I [Operation / Status Display / Control / 86[1]]

State of the module input: Acknowledgement Signal (for the Trip Command) Module input signal

86[1] . SC RESET-I [Operation / Status Display / Control / 86[1]]

State of the module input: Switch Command to RESET the Lockout-Relay, e.g. via digital input orlogic.


10 Control10.4 86[1]

86[1] . SC TRIP-I [Operation / Status Display / Control / 86[1]]

State of the module input: Switch Command to switch the Lockout-Relay to TRIPPED, e.g. via digitalinput or logic.



[Operation / Status Display / Control / 86[1]]


86[1] . SI SingleContactInd [Operation / Status Display / Control / 86[1]]

Signal: The state of the Lockout Relay is detected by one auxiliary contact (pole) only. Thereforeindeterminate and disturbed states cannot be detected.

86[1] . Pos not RESET [Operation / Status Display / Control / 86[1]]

The Lockout Relay is not in the RESET position. This means that it is either “TRIPPED” or “moving”or “disturbed”.

86[1] . Pos RESET [Operation / Status Display / Control / 86[1]]

Signal: The Lockout Relay is in RESET position

86[1] . Pos TRIPPED [Operation / Status Display / Control / 86[1]]

Signal: The Lockout Relay is in TRIPPED position

86[1] . Pos Indeterm [Operation / Status Display / Control / 86[1]]

Signal: Lockout Relay is in Indeterminate Position.

86[1] . Pos Disturb [Operation / Status Display / Control / 86[1]]

Signal: Lockout Relay DISTURBED. (The position indicators contradict each other. This signalbecomes true after the supervision timer t-Move RESET/t-Move TRIPPED has expired.)

86[1] . Pos [Operation / Status Display / Control / 86[1]]

Signal: Lockout Relay position (0 = Indeterminate, 1 = TRIPPED, 2 = RESET, 3 = Disturbed)


10 Control10.4 86[1]

86[1] . CES succesf [Operation / Status Display / Control / 86[1]]

Signal: Command Execution Supervision: Switching command executed successfully.

86[1] . CES Disturbed [Operation / Status Display / Control / 86[1]]

Signal: Command Execution Supervision: Switching Command unsuccessful. The Lockout Relay isin disturbed position.

86[1] . CES Fail TripCmd [Operation / Status Display / Control / 86[1]]

Signal: Command Execution Supervision: Command execution failed because trip command ispending.

86[1] . CES SwitchDir [Operation / Status Display / Control / 86[1]]

Signal: Command Execution Supervision / Switching Direction Control: This signal becomes true if acommand is issued to the Lockout Relay even though it is already in the requested position.Example: The Lockout Relay shall be switched to TRIPPED, but it is already in the TRIPPED position.

86[1] . CES RESET d. TRIP [Operation / Status Display / Control / 86[1]]

Signal: Command Execution Supervision: CLOSE Command during a pending OPEN Command.

86[1] . Ack TripCmd [Operation / Status Display / Control / 86[1]]

Signal: Acknowledge Trip Command

86[1] . Manual RESET Cmd [Operation / Status Display / Control / 86[1]]

Signal: Command to RESET the Lockout-Relay.

86[1] . Manual TRIP Cmd [Operation / Status Display / Control / 86[1]]

Signal: Command to switch the Lockout-Relay to TRIPPED.


10 Control10.4 86[1]

10.4.5 Operation Statistics

10.4.5.1 86[1]

Lockout Relay

10.4.5.1.1 86[1]: Global Parameters

86[1] . Operations Alarm [Control / 86[1] / General Settings]

9999 1  . . .  100000 C.2

Maximum number of operations. If the operations counter »TripCmd Cr« exceeds this limit then thesignal »Operations Alarm« is set.

10.4.5.1.2 86[1]: Direct Controls

86[1] . Res TripCmdCr [Operation / Reset]


╚═▷ Mode.

P.1

Resetting of the Counter: Total number of trips of the switch

10.4.5.1.3 86[1]: Signals (Output States)

86[1] . Operations Alarm [Operation / Status Display / Control / 86[1]]

Signal: Too many Operations. (The operations counter »TripCmd Cr« has exceeded the limit setat »Operations Alarm«.)

86[1] . Res TripCmdCr [Operation / Status Display / Control / 86[1]]

Signal: Resetting of the Counter: Total number of trips of the switch

10.4.5.1.4 86[1]: Counters

86[1] . TripCmd Cr [Operation / Count and RevData / Control / 86[1]]

Counter: Total number of trips of the switch.


10 Control10.4 86[1]

10.5 86[2]Lockout Relay


86[2] . t-Move RESET [Control / 86[2] / General Settings]

0.1s 0.01s  . . .  100.00s C.2

This is the (maximum) duration for the RESET signal being kept active. (The RESET signal isdropped immediately when the position indicators recognize that the Lockout Relay has reachedthe RESET position, but at the latest after this time has elapsed.)

86[2] . t-Move TRIPPED [Control / 86[2] / General Settings]

0.1s 0.01s  . . .  100.00s C.2

This is the (maximum) duration for the TRIP signal being kept active. (The TRIP signal is droppedimmediately when the position indicators recognize that the Lockout Relay has reached theTRIPPED position, but at the latest after this time has elapsed.)

86[2] . t-TRIPCmd [Control / 86[2] / Trip Manager]

0.2s 0s  . . .  300.00s P.2

Minimum hold time of the TRIP-command (to the Lockout Relay)

86[2] . Latched [Control / 86[2] / Trip Manager]


╚═▷ Mode.

P.2

Defines whether the Trip Command is latched.

86[2] . Ack TripCmd [Control / 86[2] / Trip Manager]



P.2

Ack TripCmd


10 Control10.5 86[2]

86[2] . TRIP Cmd1

 . . . 

86[2] . TRIP Cmd10

[Control / 86[2] / Trip Manager]

“-” “-”  . . .  ExP[4] . TripCmd


P.2


86[2] . Cin NC [Control / 86[2] / Pos Indicatrs Wirng]

“-” “-”  . . .  DI-8P X1 . DI 8


C.2

Input contact: The Lockout Relay is in the RESET position if the state of the assigned signal is true.(The RESET position of the Lockout Relay is normally implemented by using the NC contact.)

86[2] . Cin NO [Control / 86[2] / Pos Indicatrs Wirng]

“-” “-”  . . .  DI-8P X1 . DI 8


C.2

Input contact: The Lockout Relay is in the TRIPPED position if the state of the assigned signal istrue. (The TRIPPED position of the Lockout Relay is normally implemented by using the NOcontact.)

86[2] . SC RESET [Control / 86[2] / Ex RESET/TRIP Cmd]



C.2

Switch Command to RESET the Lockout-Relay, e.g. via digital input or logic.

86[2] . SC TRIP [Control / 86[2] / Ex RESET/TRIP Cmd]



C.2

Switch Command to switch the Lockout-Relay to TRIPPED, e.g. via digital input or logic.


10 Control10.5 86[2]

10.5.2 86[2]: Direct Controls

86[2] . Ack TripCmd [Operation / Reset]


╚═▷ Mode.

P.1

Acknowledge Trip Command


86[2] . Cin NC-I [Operation / Status Display / Control / 86[2]]


86[2] . Cin NO-I [Operation / Status Display / Control / 86[2]]


86[2] . Ack TripCmd-I [Operation / Status Display / Control / 86[2]]

State of the module input: Acknowledgement Signal (for the Trip Command) Module input signal

86[2] . SC RESET-I [Operation / Status Display / Control / 86[2]]

State of the module input: Switch Command to RESET the Lockout-Relay, e.g. via digital input orlogic.

86[2] . SC TRIP-I [Operation / Status Display / Control / 86[2]]

State of the module input: Switch Command to switch the Lockout-Relay to TRIPPED, e.g. via digitalinput or logic.


10 Control10.5 86[2]



[Operation / Status Display / Control / 86[2]]


86[2] . SI SingleContactInd [Operation / Status Display / Control / 86[2]]

Signal: The state of the Lockout Relay is detected by one auxiliary contact (pole) only. Thereforeindeterminate and disturbed states cannot be detected.

86[2] . Pos not RESET [Operation / Status Display / Control / 86[2]]

The Lockout Relay is not in the RESET position. This means that it is either “TRIPPED” or “moving”or “disturbed”.

86[2] . Pos RESET [Operation / Status Display / Control / 86[2]]

Signal: The Lockout Relay is in RESET position

86[2] . Pos TRIPPED [Operation / Status Display / Control / 86[2]]

Signal: The Lockout Relay is in TRIPPED position

86[2] . Pos Indeterm [Operation / Status Display / Control / 86[2]]

Signal: Lockout Relay is in Indeterminate Position.

86[2] . Pos Disturb [Operation / Status Display / Control / 86[2]]

Signal: Lockout Relay DISTURBED. (The position indicators contradict each other. This signalbecomes true after the supervision timer t-Move RESET/t-Move TRIPPED has expired.)

86[2] . Pos [Operation / Status Display / Control / 86[2]]

Signal: Lockout Relay position (0 = Indeterminate, 1 = TRIPPED, 2 = RESET, 3 = Disturbed)

86[2] . CES succesf [Operation / Status Display / Control / 86[2]]

Signal: Command Execution Supervision: Switching command executed successfully.


10 Control10.5 86[2]

86[2] . CES Disturbed [Operation / Status Display / Control / 86[2]]

Signal: Command Execution Supervision: Switching Command unsuccessful. The Lockout Relay isin disturbed position.

86[2] . CES Fail TripCmd [Operation / Status Display / Control / 86[2]]

Signal: Command Execution Supervision: Command execution failed because trip command ispending.

86[2] . CES SwitchDir [Operation / Status Display / Control / 86[2]]

Signal: Command Execution Supervision / Switching Direction Control: This signal becomes true if acommand is issued to the Lockout Relay even though it is already in the requested position.Example: The Lockout Relay shall be switched to TRIPPED, but it is already in the TRIPPED position.

86[2] . CES RESET d. TRIP [Operation / Status Display / Control / 86[2]]

Signal: Command Execution Supervision: CLOSE Command during a pending OPEN Command.

86[2] . Ack TripCmd [Operation / Status Display / Control / 86[2]]

Signal: Acknowledge Trip Command

86[2] . Manual RESET Cmd [Operation / Status Display / Control / 86[2]]


86[2] . Manual TRIP Cmd [Operation / Status Display / Control / 86[2]]



10 Control10.5 86[2]

10.5.5 Operation Statistics

10.5.5.1 86[2]

Lockout Relay

10.5.5.1.1 86[2]: Global Parameters

86[2] . Operations Alarm [Control / 86[2] / General Settings]

9999 1  . . .  100000 C.2

Maximum number of operations. If the operations counter »TripCmd Cr« exceeds this limit then thesignal »Operations Alarm« is set.

10.5.5.1.2 86[2]: Direct Controls

86[2] . Res TripCmdCr [Operation / Reset]


╚═▷ Mode.

P.1

Resetting of the Counter: Total number of trips of the switch

10.5.5.1.3 86[2]: Signals (Output States)

86[2] . Operations Alarm [Operation / Status Display / Control / 86[2]]

Signal: Too many Operations. (The operations counter »TripCmd Cr« has exceeded the limit setat »Operations Alarm«.)

86[2] . Res TripCmdCr [Operation / Status Display / Control / 86[2]]

Signal: Resetting of the Counter: Total number of trips of the switch


10 Control10.5 86[2]

10.5.5.1.4 86[2]: Counters

86[2] . TripCmd Cr [Operation / Count and RevData / Control / 86[2]]

Counter: Total number of trips of the switch.


10 Control10.5 86[2]

11 Records

11.1 Event recThe event recorder logs all events like switching operations, change of parameters,pickups, trips, operating mode selections, blockings, and state transitions of inputs andoutputs.

Event rec [Operation / Recorders / Event rec]


The event recorder logs all events like switching operations, change of parameters, pickups, trips,operating mode selections, blockings, and state transitions of inputs and outputs.

11.1.1 Event rec: Direct Controls

Event rec . Res all rec [Operation / Reset]


╚═▷ Mode.

P.1

Reset all records

11.1.2 Event rec: Signals (Output States)

Event rec . Res all records [Operation / Status Display / Recorders / Event rec]

Signal: All records are being deleted. (Remark: Immediately afterwards, this signal becomesinactive again.)


11 Records11.1 Event rec

11.2 Waveform recAfter a trigger event has become true, the waveform recorder writes analog and digitaltracks

Waveform rec [Operation / Recorders / Waveform rec]


After a trigger event has become true, the waveform recorder writes analog and digital tracks

11.2.1 Waveform rec: Global Parameters

Waveform rec . Start: 1 [Device Para / Recorders / Waveform rec]

Prot . Trip “-”  . . .  Sys . Internal test state


S.3

Start recording if the assigned signal is true.

Waveform rec . Start: 2

 . . . 

Waveform rec . Start: 8

[Device Para / Recorders / Waveform rec]



S.3

Start recording if the assigned signal is true.

Waveform rec . Auto overwriting [Device Para / Recorders / Waveform rec]


╚═▷ Mode.

S.3

If there is no more free memory capacity left, the oldest file will be overwritten.

Waveform rec . Pre-trigger time [Device Para / Recorders / Waveform rec]

20% 0%  . . .  99% S.3

The pre trigger time is set in percent of the »Max file size« value. It corresponds to the part ofrecording before the onset of the trigger event.


11 Records11.2 Waveform rec

Waveform rec . Post-trigger time [Device Para / Recorders / Waveform rec]

20% 0%  . . .  99% S.3

The post trigger time is set in percent of the »Max file size« value. It is the remaining time ofthe »Max file size«, depending on the »Pre-trigger time« setting and the duration of the triggerevent, but at maximum the »Post-trigger time« set here.

Waveform rec . Max file size [Device Para / Recorders / Waveform rec]

2s 0.1s  . . .  15.0s S.3

The maximum storage capacity per record, including pre-trigger and post-trigger time. The amountof records depends on the size of each record, on the max. file size (set here), and on the totalstorage capacity.

11.2.2 Waveform rec: Direct Controls

Waveform rec . Man. Trigger [Operation / Recorders / Man. Trigger]

False False, True

╚═▷ True or Not True.

P.1

Manual Trigger

Waveform rec . Res all rec [Operation / Reset]


╚═▷ Mode.

P.1

Reset all records

11.2.3 Waveform rec: Input States

Waveform rec . Start1-I

 . . . 

Waveform rec . Start8-I

[Operation / Status Display / Recorders / Waveform rec]

State of the module input:: Trigger event / start recording



11.2.4 Waveform rec: Signals (Output States)

Waveform rec . Recording [Operation / Status Display / Recorders / Waveform rec]

Signal: Recording

Waveform rec . Memory full [Operation / Status Display / Recorders / Waveform rec]

Signal: Memory Full

Waveform rec . Clear fail [Operation / Status Display / Recorders / Waveform rec]

Signal: Clear Failure in Memory

Waveform rec . Res all records [Operation / Status Display / Recorders / Waveform rec]


Waveform rec . Res all records [Operation / Status Display / Recorders / Waveform rec]


Waveform rec . Man. Trigger [Operation / Status Display / Recorders / Waveform rec]

Signal: Manual Trigger

11.2.5 Waveform rec: Values

Waveform rec . Rec state [Operation / Status Display / Recorders / Waveform rec]

Ready Ready, Recording, Writing file, Trigger Blo

╚═▷ Rec state.

Recording state



Waveform rec . Error code [Operation / Status Display / Recorders / Waveform rec]

OK OK, Write err, Clear fail, Calculation err, File not found,Auto overwriting off

╚═▷ Fault.

Error code



11.3 Fault recThe values measured at the time of tripping are saved by the Fault Recorder.

Fault rec [Operation / Recorders / Fault rec]


The values measured at the time of tripping are saved by the Fault Recorder.

11.3.1 Fault rec: Global Parameters

Fault rec . Record-Mode [Device Para / Recorders / Fault rec]

Trips only Pickups and Trips, Trips only

╚═▷ Record-Mode.

S.3

Recorder Mode (Set the behaviour of the recorder)

Fault rec . t-meas-delay [Device Para / Recorders / Fault rec]

0ms 0ms  . . .  60ms S.3

After the Trip, the measurement will be delayed for this time.

11.3.2 Fault rec: Direct Controls

Fault rec . Res all rec [Operation / Reset]


╚═▷ Mode.

P.1

Reset all records


11 Records11.3 Fault rec

11.3.3 Fault rec: Signals (Output States)

Fault rec . Res all records [Operation / Status Display / Recorders / Fault rec]



11 Records11.3 Fault rec

11.4 Trend recTrend Recorder

Trend rec [Operation / Recorders / Trend rec]


Trend Recorder

11.4.1 Trend rec: Global Parameters

Trend rec . Resolution [Device Para / Recorders / Trend rec]

15 min 60 min, 30 min, 15 min, 10 min, 5 min

╚═▷ Resolution.

S.3

Resolution (recording frequency)

Trend rec . Observed Value1 [Device Para / Recorders / Trend rec]

EBR-Z . 87VA “-”, EBR-Z . 87VA, EBR-Z . 87VB, EBR-Z . 87VC


S.3

Observed Value1


EBR-Z . 87VB “-”, EBR-Z . 87VA, EBR-Z . 87VB, EBR-Z . 87VC


S.3

Observed Value2


EBR-Z . 87VC “-”, EBR-Z . 87VA, EBR-Z . 87VB, EBR-Z . 87VC


S.3

Observed Value3


11 Records11.4 Trend rec

11.4.2 Trend rec: Direct Controls

Trend rec . Res all rec [Operation / Reset]


╚═▷ Mode.

P.1

Reset all records

11.4.3 Trend rec: Signals (Output States)

Trend rec . Res all records [Operation / Status Display / Recorders / Trend rec]


11.4.4 Trend rec: Counters

Trend rec . Max avail Entries [Operation / Count and RevData / Trend rec]

Maximum available entries in the current configuration


11 Records11.4 Trend rec

12 Logic

12.1 LogicLogic

12.1.1 Logic: Device Planning Parameters

Logic . No of Equations: [Device Planning]

0 0, 5, 10, 20, 40, 80

╚═▷ No of Equations:.

S.3

Number of required Logic Equations:


12 Logic12.1 Logic

12.1.2 Logic  . . .  Logic

Logic

12.1.2.1 Logic: Global Parameters

Logic . LE1.Gate [Logic / LE 1]

AND AND, OR, NAND, NOR

╚═▷ LE1.Gate.

S.3

Logic gate

Logic . LE1.IN1

 . . . 

Logic . LE1.IN4

[Logic / LE 1]



S.3

Assignment of the Input Signal

Logic . LE1.Inverting1

 . . . 

Logic . LE1.Inverting4

[Logic / LE 1]

Inactive

Only available if:

• Logic . LE1.IN1 ≠ “-”

Inactive, Active

╚═▷ Mode.

S.3

Inverting the input signals.

Logic . LE1.t-On Delay [Logic / LE 1]

0.00s 0.00s  . . .  36000.00s S.3

Switch On Delay


12 Logic12.1 Logic

Logic . LE1.t-Off Delay [Logic / LE 1]

0.00s 0.00s  . . .  36000.00s S.3

Switch Off Delay

Logic . LE1.Reset Latched [Logic / LE 1]



S.3

Reset Signal for the Latching

Logic . LE1.Inverting Reset [Logic / LE 1]

Inactive

Only available if:

• Logic . LE1.Reset Latched ≠ “-”

Inactive, Active

╚═▷ Mode.

S.3

Inverting Reset Signal for the Latching

Logic . LE1.Inverting Set [Logic / LE 1]

Inactive

Only available if:

• Logic . LE1.Reset Latched ≠ “-”

Inactive, Active

╚═▷ Mode.

S.3

Inverting the Setting Signal for the Latching

12.1.2.2 Logic: Input States

Logic . LE1.Gate In1-I

 . . . 

Logic . LE1.Gate In4-I

[Operation / Status Display / Logic]

State of the module input: Assignment of the Input Signal


12 Logic12.1 Logic

Logic . LE1.Reset Latch-I [Operation / Status Display / Logic]

State of the module input: Reset Signal for the Latching

12.1.2.3 Logic: Signals (Output States)

Logic . LE1.Gate Out [Operation / Status Display / Logic]

Signal: Output of the logic gate

Logic . LE1.Timer Out [Operation / Status Display / Logic]

Signal: Timer Output

Logic . LE1.Out [Operation / Status Display / Logic]

Signal: Latched Output (Q)

Logic . LE1.Out inverted [Operation / Status Display / Logic]

Signal: Negated Latched Output (Q NOT)


12 Logic12.1 Logic


12 Logic

13 Self Supervision, SupervisionSelfSupervision

Messages [Operation / Self Supervision / Messages]


Internal messages

13.1 SSV: Direct Controls

SSV . Ack System LED [Operation / Reset]

False False, True

╚═▷ True or Not True.

P.1

Ack System LED (red/green flashing LED)

13.2 SSV: Signals (Output States)

SSV . System Error [Operation / Self Supervision / System State]

Signal: Device Failure

SSV . SelfSuperVision Contact [Operation / Self Supervision / System State]

Signal: SelfSuperVision Contact

13.3 SSV: Counters

SSV . Cr No of free sockets [Operation / Self Supervision / System State]

Counter for network diagnosis. Number of free sockets.


13 Self Supervision, Supervision13.1 SSV: Direct Controls

13.4 TCM[1]  . . .  TCM[2]Trip Coil Monitoring

13.4.1 TCM[1]: Device Planning Parameters

TCM[1] . Mode [Device Planning]

“-” “-”, Use


S.3

Trip Coil Monitoring, General Operation Mode

13.4.2 TCM[1]: Global Parameters

TCM[1] . 86 Pos Detect [Protection Para / Global Prot Para / Supervision / TCM[1]]

86[1] . Pos “-”, 86[1] . Pos, 86[2] . Pos

╚═▷ Bkr Manager.

P.2

The TCM module uses the position of the Lockout Relay selected here.

TCM[1] . Mode [Protection Para / Global Prot Para / Supervision / TCM[1]]

RESET

Only available if:

• TCM[1] . 86 Pos Detect ≠ “-”

RESET, Either

╚═▷ Mode.

P.2

Select if trip circuit is going to be monitored when the Lockout Relay is in state RESET or when theLockout Relay is either in RESET or TRIPPED state.

TCM[1] . Input 1 [Protection Para / Global Prot Para / Supervision / TCM[1]]

“-”

Only available if:

• TCM[1] . 86 Pos Detect ≠ “-”

“-”  . . .  DI-8P X1 . DI 8


P.2

Select the input configured to monitor the trip coil when the Lockout Relay is in state RESET.


13 Self Supervision, Supervision13.4 TCM[1]  . . .  TCM[2]

TCM[1] . Input 2 [Protection Para / Global Prot Para / Supervision / TCM[1]]

“-”

Only available if:

• TCM[1] . 86 Pos Detect ≠ “-”• TCM[1] . Mode = Either

“-”  . . .  DI-8P X1 . DI 8


P.2

Select the input configured to monitor the trip coil when the Lockout Relay is in state TRIPPED.Only available if Mode set to “Either”.

TCM[1] . ExBlo1

TCM[1] . ExBlo2

[Protection Para / Global Prot Para / Supervision / TCM[1]]



P.2


13.4.3 TCM[1]: Setting Group Parameters

TCM[1] . Function [Protection Para / Set 1 / Supervision / TCM[1]]


╚═▷ Mode.

P.2


TCM[1] . ExBlo Fc [Protection Para / Set 1 / Supervision / TCM[1]]



P.2




TCM[1] . t-TCM [Protection Para / Set 1 / Supervision / TCM[1]]

0.2s 0.10s  . . .  10.00s P.2

Delay time of the Trip Coil Monitoring

13.4.4 TCM[1]: Input States

TCM[1] . Cin NC-I [Operation / Status Display / Supervision / TCM[1]]


TCM[1] . Cin NO-I [Operation / Status Display / Supervision / TCM[1]]


TCM[1] . ExBlo1-I [Operation / Status Display / Supervision / TCM[1]]


TCM[1] . ExBlo2-I [Operation / Status Display / Supervision / TCM[1]]


13.4.5 TCM[1]: Signals (Output States)

TCM[1] . Active [Operation / Status Display / All Actives]

[Operation / Status Display / Supervision / TCM[1]]

Signal: Active

TCM[1] . Pickup [Operation / Status Display / Pickups]

[Operation / Status Display / Supervision / TCM[1]]

Signal: Pickup Trip Circuit Supervision

TCM[1] . ExBlo [Operation / Status Display / Supervision / TCM[1]]




TCM[1] . Not Possible [Operation / Status Display / Supervision / TCM[1]]

Not possible because no state indicator has been assigned to the Lockout Relay.




13 Self Supervision, Supervision

14 ServiceSys . Reboot [Service / General]

No No, Yes

╚═▷ Yes/No.

S.3

Rebooting the device.


14 Service

14.1 SgenSine wave generator

14.1.1 Sgen: Device Planning Parameters

Sgen . Mode [Device Planning]

Use “-”, Use

╚═▷ Mode.

S.3


14.1.2 Sgen: Global Parameters

Sgen . TripCmd Mode [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Process]

No TripCmd No TripCmd, With TripCmd

╚═▷ TripCmd Mode.

S.3

Trip Command Mode: Select between two operating modes for the Fault Simulator: "coldsimulation” (without tripping the Breaker), or "hot simulation” (i.e. the simulation is authorized totrip the Breaker)

Sgen . Ex Start Simulation [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Process]



S.3

External Start of Fault Simulation (Using the test parameters)

Sgen . ExBlo1 [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Process]



S.3

External blocking of the module, if blocking is activated (allowed) within a parameter set and if thestate of the assigned signal is true.1


14 Service14.1 Sgen

Sgen . ExBlo2 [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Process]



S.3

External blocking of the module, if blocking is activated (allowed) within a parameter set and if thestate of the assigned signal is true.2

Sgen . Ex ForcePost [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Process]



S.3

Force Post state. Abort simulation.

Sgen . PreFault [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / Times]

0.0s 0.00s  . . .  300.00s S.3

Pre Fault Duration

Sgen . FaultSimulation [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / Times]

0.0s 0.00s  . . .  10800.00s S.3

Duration of Fault Simulation

Sgen . PostFault [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / Times]

0.0s 0.00s  . . .  300.00s S.3

Post Fault Duration


14 Service14.1 Sgen

14.1.3 Sgen: Direct Controls

Sgen . Start Simulation [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Process]


╚═▷ Mode.

S.3

Start Fault Simulation (Using the test parameters)

Sgen . Stop Simulation [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Process]


╚═▷ Mode.

S.3

Stop Fault Simulation (Using the test parameters)

14.1.4 Sgen: Input States

Sgen . Ex Start Simulation-I [Operation / Status Display / Sgen]

State of the module input:External Start of Fault Simulation (Using the test parameters)

Sgen . ExBlo1-I [Operation / Status Display / Sgen]

[Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /State]


Sgen . ExBlo2-I [Operation / Status Display / Sgen]




14 Service14.1 Sgen

Sgen . Ex ForcePost-I [Operation / Status Display / Sgen]


State of the module input:Force Post state. Abort simulation.

14.1.5 Sgen: Signals (Output States)

Sgen . Manual Start [Operation / Status Display / Sgen]

Fault Simulation has been started manually.

Sgen . Manual Stop [Operation / Status Display / Sgen]

Fault Simulation has been stopped manually.

Sgen . Running [Operation / Status Display / Sgen]


Signal: Measuring value simulation is running

Sgen . Started [Operation / Status Display / Sgen]

Fault Simulation has been started

Sgen . Stopped [Operation / Status Display / Sgen]

Fault Simulation has been stopped

Sgen . State [Operation / Status Display / Sgen]

Signal: Wave generation states: 0=Off, 1=PreFault, 2=Fault, 3=PostFault, 4=InitReset


14 Service14.1 Sgen

14.1.6 Sgen: Values

Sgen . State [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /State]

Off Off, PreFault, FaultSimulation, PostFault, Init Res

╚═▷ State.

Wave generation states: 0=Off, 1=PreFault, 2=Fault, 3=PostFault, 4=InitReset


14 Service14.1 Sgen

14.1.7 Sgen

Sine wave generator

14.1.7.1 Sgen: Global Parameters

Sgen . 87VA [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PreFault / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude in Pre State: 87VA

Sgen . 87VB [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PreFault / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude in Pre State: 87VB

Sgen . 87VC [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PreFault / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude in Pre State: 87VC

Sgen . phi 87VA [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PreFault / EBR-Z Sim.]

0° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Pre-Phase: Phase A

Sgen . phi 87VB [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PreFault / EBR-Z Sim.]

240° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Pre-Phase: Phase B

Sgen . phi 87VC [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PreFault / EBR-Z Sim.]

120° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Pre-Phase: Phase C


14 Service14.1 Sgen

Sgen . 87VA [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / FaultSimulation / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude in Fault State: 87VA

Sgen . 87VB [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / FaultSimulation / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude in Fault State: 87VB

Sgen . 87VC [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / FaultSimulation / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude in Fault State: 87VC

Sgen . phi 87VA [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / FaultSimulation / EBR-Z Sim.]

0° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Fault-Phase: Phase A

Sgen . phi 87VB [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / FaultSimulation / EBR-Z Sim.]

240° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Fault-Phase: Phase B

Sgen . phi 87VC [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / FaultSimulation / EBR-Z Sim.]

120° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Fault-Phase: Phase C

Sgen . 87VA [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PostFault / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude during Post phase: 87VA


14 Service14.1 Sgen

Sgen . 87VB [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PostFault / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude during Post phase: 87VB

Sgen . 87VC [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PostFault / EBR-Z Sim.]

0.0V 0.0V  . . .  2000.0V S.3

Magnitude during Post phase: 87VC

Sgen . phi 87VA [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PostFault / EBR-Z Sim.]

0° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Post phase: Phase A

Sgen . phi 87VB [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PostFault / EBR-Z Sim.]

240° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Post phase: Phase B

Sgen . phi 87VC [Service / Test Mode (Prot inhibit) / WARNING! Cont? / Sgen /Configuration / PostFault / EBR-Z Sim.]

120° -360°  . . .  360° S.3

Start Position respectively Start Angle of the phasor during Post phase: Phase C


14 Service14.1 Sgen


14 Service

15 Selection ListsHardware Option 1

Catalog number, hardware option 1

Selection list referenced by parameters:

• ╚═▷ . Hardware Variant 1

Options Description

8 Digital Inputs | 6Relay Outputs | IRIG-B| TCM

8 Digital Inputs | 6 Relay Outputs | IRIG-B | TCM

Hardware Option 2

Catalog number, hardware option 2


• ╚═▷ . Hardware Variant 2

Options Description

Standard "0": Standard | Power Supply: 19...300 Vdc, 40...250 Vac

Communication


• ╚═▷ . Communication

Options Description

Without "A": Without

RS 485: Modbus RTU |DNP RTU

"B": RS 485: Modbus RTU | DNP RTU

Ethernet: Modbus TCP| DNP UDP, TCP

"C": Ethernet: Modbus TCP | DNP UDP, TCP

Fiber Optics: Profibus-DP

"D": Fiber Optics: Profibus-DP


15 Selection Lists

Options Description

D-SUB: Profibus-DP "E": D-SUB: Profibus-DP

Fiber Optics: ModbusRTU | DNP RTU

"F": Fiber Optics: Modbus RTU | DNP RTU

RS 485/D-SUB: ModbusRTU | DNP RTU

"G": RS 485/D-SUB: Modbus RTU | DNP RTU

Ethernet: IEC61850 |Modbus TCP | DNPUDP, TCP

"H": Ethernet: IEC61850 | Modbus TCP | DNP UDP, TCP

RS 485, Ethernet:Modbus TCP, RTU | DNPUDP, TCP, RTU

"I": RS 485, Ethernet: Modbus TCP, RTU | DNP UDP, TCP, RTU

Ethernet/Fiber Optics:IEC61850 | ModbusTCP | DNP UDP, TCP

"K": Ethernet/Fiber Optics: IEC61850 | Modbus TCP | DNP UDP, TCP

Ethernet/Fiber Optics:Modbus TCP | DNPUDP, TCP

"L": Ethernet/Fiber Optics: Modbus TCP | DNP UDP, TCP

RS485, Ethern.:IEC61850 | Modb.TCP,RTU | DNPUDP,TCP,RTU

"T": RS 485, Ethernet: IEC61850 | Modbus TCP, RTU | DNP UDP, TCP, RTU



• ╚═▷ . Printed Circuit Board

Options Description

Standard "A": Standard

Conformal Coating "B": Conformal Coating

Time Zones


• ╚═▷ TimeSync . Time Zones


15 Selection Lists

Options Description

UTC+14 Kiritimati UTC+14 Kiritimati

UTC+13 Rawaki UTC+13 Rawaki

UTC+12.75 ChathamIsland

UTC+12.75 Chatham Island

UTC+12 Wellington UTC+12 Wellington

UTC+11.5 Kingston UTC+11.5 Kingston

UTC+11 Port Vila UTC+11 Port Vila

UTC+10.5 Lord HoweIsland

UTC+10.5 Lord Howe Island

UTC+10 Sydney UTC+10 Sydney

UTC+9.5 Adelaide UTC+9.5 Adelaide

UTC+9 Tokyo UTC+9 Tokyo

UTC+8 Hong Kong UTC+8 Hong Kong

UTC+7 Bangkok UTC+7 Bangkok

UTC+6.5 Rangoon UTC+6.5 Rangoon

UTC+6 Colombo UTC+6 Colombo

UTC+5.75 Kathmandu UTC+5.75 Kathmandu

UTC+5.5 New Delhi UTC+5.5 New Delhi

UTC+5 Islamabad UTC+5 Islamabad

UTC+4.5 Kabul UTC+4.5 Kabul

UTC+4 Abu Dhabi UTC+4 Abu Dhabi

UTC+3.5 Tehran UTC+3.5 Tehran

UTC+3 Moscow UTC+3 Moscow

UTC+2 Athens UTC+2 Athens

UTC+1 Berlin UTC+1 Berlin

UTC+0 London UTC+0 London

UTC-1 Azores UTC-1 Azores

UTC-2 Fern. d.Noronha

UTC-2 Fern. d. Noronha

UTC-3 Buenos Aires UTC-3 Buenos Aires

UTC-3.5 St. John’s UTC-3.5 St. John’s


15 Selection Lists

Options Description

UTC-4 Santiago UTC-4 Santiago

UTC-5 New York UTC-5 New York

UTC-6 Chicago UTC-6 Chicago

UTC-7 Salt Lake City UTC-7 Salt Lake City

UTC-8 Los Angeles UTC-8 Los Angeles

UTC-9 Anchorage UTC-9 Anchorage

UTC-9.5 Taiohae UTC-9.5 Taiohae

UTC-10 Honolulu UTC-10 Honolulu

UTC-11 Midway Islands UTC-11 Midway Islands

Mode



• ╚═▷ DNP . Res all Diag Cr

• ╚═▷ Sys . Ack RO LED Comm TCmd

• ╚═▷ Sys . Ack LED

• ╚═▷ Sys . Ack RO

• ╚═▷ Sys . Ack Comm

• ╚═▷ Prot . Res FaultNo a GridFaultNo

• [ . . . ]

Options Description

Inactive Inactive

Active Active


15 Selection Lists

Month of clock change


• ╚═▷ TimeSync . Summertime m

• ╚═▷ TimeSync . Wintertime m

Options Description

January January

February February

March March

April April

May May

June June

July July

August August

September September

October October

November November

December December

Date


• ╚═▷ TimeSync . Summertime d

• ╚═▷ TimeSync . Wintertime d

Options Description

Sunday Sunday

Monday Monday

Tuesday Tuesday

Wednesday Wednesday

Thursday Thursday


15 Selection Lists

Options Description

Friday Friday

Saturday Saturday

General day General day: Examples: first day of month, last day of month

Day of clock change

Day of Time Saving change


• ╚═▷ TimeSync . Summertime w

• ╚═▷ TimeSync . Wintertime w

Options Description

First First week of the month

Second Second week of the month

Third Third week of the month

Fourth Fourth week of the month

Last Last week of the month

Used Protocol


• ╚═▷ TimeSync . TimeSync

Options Description

“-” -

IRIG-B . IRIG-B IRIG-B Module

SNTP . SNTP SNTP-Module

Modbus . Modbus Modbus Protocol

DNP . DNP Distributed Network Protocol


15 Selection Lists

IRIG-B00X

Determination of the Type: IRIG-B00X. IRIG-B types differ in types of included “CodedExpressions” (year, control-functions, straight-binary-seconds).


• ╚═▷ IRIG-B . IRIG-B00X

Options Description

IRIGB-000 Please refer to: IRIG STANDARD 200-04








Nom Voltage

Nominal voltage of the digital inputs


• ╚═▷ DI-8P X1 . Nom Voltage

Options Description

24 Vdc 24 Vdc

48 Vdc 48 Vdc

60 Vdc 60 Vdc

125 Vdc 125 Vdc

250 Vdc 250 Vdc

110/120 Vac 110 Vac


15 Selection Lists

Options Description

230/240 Vac 230/240 Vac

Debouncing Time

A change of the state of a digital input will only be recognized after the debouncing timehas expired (become effective). Thus, transient signals will not be misinterpreted.


• ╚═▷ DI-8P X1 . Debouncing Time 1

Options Description

No Debouncing Time No Debouncing Time

20 ms 20 ms

50 ms 50 ms

100 ms 100 ms

1..n, WiredInputs

1..n, Ext Signals


• ╚═▷ Wired Inputs . 86T NO

• ╚═▷ Wired Inputs . 86T NC

• ╚═▷ Wired Inputs . 86 CT NO

• ╚═▷ Wired Inputs . 86 CT NC

• ╚═▷ Wired Inputs . Check Zone

Options Description

“-” No assignment

DI-8P X1 . DI 1 Signal: Digital Input



15 Selection Lists

Options Description







1...n Operating Modes


• ╚═▷ RO-5 X2 . Operating Mode





Options Description

Norm De-energ. (NO) The working principle of the relay corresponds to normally de-energized(normally open) contact.

Norm Energ. (NC) The working principle of the relay corresponds to normally energized(normally closed) contact.

1..n, Assignment List

Assignment List


• ╚═▷ Prot . ExBlo1

• ╚═▷ 87[1] . ExBlo1

• ╚═▷ 87[1] . ExBlo TripCmd


15 Selection Lists

• ╚═▷ 87[1] . Ex Rel. Check Zone

• ╚═▷ 87SV[1] . ExBlo1

• ╚═▷ ExP[1] . ExBlo1

• [ . . . ]

Options Description


Prot . Available Signal: Protection is available.

Prot . Active Signal: Active

Prot . ExBlo Signal: External Blocking

Prot . Pickup Phase A Signal: General Pickup Phase A

Prot . Pickup Phase B Signal: General Pickup Phase B

Prot . Pickup Phase C Signal: General Pickup Phase C

Prot . Pickup Signal: General Pickup

Prot . Trip Phase A Signal: General Trip Phase A

Prot . Trip Phase B Signal: General Trip Phase B

Prot . Trip Phase C Signal: General Trip Phase C

Prot . Trip Signal: General Trip

Prot . Res FaultNo aGridFaultNo

Signal: Resetting of fault number and grid fault number.

Prot . ExBlo1-I Module Input State: External Blocking1

Prot . ExBlo2-I Module Input State: External Blocking2

Ctrl . Local Switching Authority: Local

Ctrl . Remote Switching Authority: Remote

Ctrl . SG Indeterm (At least one) Switch is moving (Position cannot be determined).

Ctrl . SG Disturb (At least one) Switch is disturbed.

86[1] . SISingleContactInd

Signal: The state of the Lockout Relay is detected by one auxiliarycontact (pole) only. Therefore indeterminate and disturbed statescannot be detected.

86[1] . Pos not RESET The Lockout Relay is not in the RESET position. This means that it iseither “TRIPPED” or “moving” or “disturbed”.

86[1] . Pos RESET Signal: The Lockout Relay is in RESET position

86[1] . Pos TRIPPED Signal: The Lockout Relay is in TRIPPED position


15 Selection Lists

Options Description

86[1] . Pos Indeterm Signal: Lockout Relay is in Indeterminate Position.

86[1] . Pos Disturb Signal: Lockout Relay DISTURBED. (The position indicators contradicteach other. This signal becomes true after the supervision timer t-MoveRESET/t-Move TRIPPED has expired.)

86[1] . CES succesf Signal: Command Execution Supervision: Switching command executedsuccessfully.

86[1] . CES Disturbed Signal: Command Execution Supervision: Switching Commandunsuccessful. The Lockout Relay is in disturbed position.

86[1] . CES Fail TripCmd Signal: Command Execution Supervision: Command execution failedbecause trip command is pending.

86[1] . CES SwitchDir Signal: Command Execution Supervision / Switching Direction Control:This signal becomes true if a command is issued to the Lockout Relayeven though it is already in the requested position. Example: TheLockout Relay shall be switched to TRIPPED, but it is already in theTRIPPED position.

86[1] . CES RESET d.TRIP

Signal: Command Execution Supervision: CLOSE Command during apending OPEN Command.

86[1] . TripCmd Signal: Trip Command

86[1] . Ack TripCmd Signal: Acknowledge Trip Command

86[1] . Manual RESETCmd


86[1] . Manual TRIPCmd


86[1] . Cin NC-I Module input state: This is the feedback signal indicating that theLockout Relay is in the RESET position. (This is normally implementedby using the NC contact.)

86[1] . Cin NO-I Module input state: This is the feedback signal indicating that theLockout Relay is in the TRIPPED position. (This is normally implementedby using the NO contact.)

86[1] . Ack TripCmd-I State of the module input: Acknowledgement Signal (for the TripCommand) Module input signal

86[1] . SC RESET-I State of the module input: Switch Command to RESET the Lockout-Relay, e.g. via digital input or logic.

86[1] . SC TRIP-I State of the module input: Switch Command to switch the Lockout-Relay to TRIPPED, e.g. via digital input or logic.

86[1] . OperationsAlarm

Signal: Too many Operations. (The operations counter »TripCmdCr« has exceeded the limit set at »Operations Alarm«.)

86[1] . Res TripCmdCr Signal: Resetting of the Counter: Total number of trips of the switch


15 Selection Lists

Options Description

86[2] . SISingleContactInd

Signal: The state of the Lockout Relay is detected by one auxiliarycontact (pole) only. Therefore indeterminate and disturbed statescannot be detected.

86[2] . Pos not RESET The Lockout Relay is not in the RESET position. This means that it iseither “TRIPPED” or “moving” or “disturbed”.

86[2] . Pos RESET Signal: The Lockout Relay is in RESET position

86[2] . Pos TRIPPED Signal: The Lockout Relay is in TRIPPED position

86[2] . Pos Indeterm Signal: Lockout Relay is in Indeterminate Position.

86[2] . Pos Disturb Signal: Lockout Relay DISTURBED. (The position indicators contradicteach other. This signal becomes true after the supervision timer t-MoveRESET/t-Move TRIPPED has expired.)

86[2] . CES succesf Signal: Command Execution Supervision: Switching command executedsuccessfully.

86[2] . CES Disturbed Signal: Command Execution Supervision: Switching Commandunsuccessful. The Lockout Relay is in disturbed position.

86[2] . CES Fail TripCmd Signal: Command Execution Supervision: Command execution failedbecause trip command is pending.

86[2] . CES SwitchDir Signal: Command Execution Supervision / Switching Direction Control:This signal becomes true if a command is issued to the Lockout Relayeven though it is already in the requested position. Example: TheLockout Relay shall be switched to TRIPPED, but it is already in theTRIPPED position.

86[2] . CES RESET d.TRIP

Signal: Command Execution Supervision: CLOSE Command during apending OPEN Command.


86[2] . Ack TripCmd Signal: Acknowledge Trip Command

86[2] . Manual RESETCmd


86[2] . Manual TRIPCmd


86[2] . Cin NC-I Module input state: This is the feedback signal indicating that theLockout Relay is in the RESET position. (This is normally implementedby using the NC contact.)

86[2] . Cin NO-I Module input state: This is the feedback signal indicating that theLockout Relay is in the TRIPPED position. (This is normally implementedby using the NO contact.)

86[2] . Ack TripCmd-I State of the module input: Acknowledgement Signal (for the TripCommand) Module input signal


15 Selection Lists

Options Description

86[2] . SC RESET-I State of the module input: Switch Command to RESET the Lockout-Relay, e.g. via digital input or logic.

86[2] . SC TRIP-I State of the module input: Switch Command to switch the Lockout-Relay to TRIPPED, e.g. via digital input or logic.

86[2] . OperationsAlarm

Signal: Too many Operations. (The operations counter »TripCmdCr« has exceeded the limit set at »Operations Alarm«.)

86[2] . Res TripCmdCr Signal: Resetting of the Counter: Total number of trips of the switch

87SV[1] . Active Signal: Active

87SV[1] . ExBlo Signal: External Blocking

87SV[1] . Pickup A Signal: 87SV supervision pickup (Phase A).

87SV[1] . Pickup B Signal: 87SV supervision pickup (Phase B).

87SV[1] . Pickup C Signal: 87SV supervision pickup (Phase C).

87SV[1] . Pickup Signal: 87SV supervision pickup.

87SV[1] . Alarm A Signal: 87SV supervision alarm (Phase A).

87SV[1] . Alarm B Signal: 87SV supervision alarm (Phase B).

87SV[1] . Alarm C Signal: 87SV supervision alarm (Phase C).

87SV[1] . Alarm Signal: 87SV supervision alarm.

87SV[1] . DefaultSet Signal: Default Parameter Set

87SV[1] . AdaptSet 1 Signal: Adaptive Parameter 1




87SV[1] . ExBlo1-I Module Input State: External Blocking1


87SV[1] . AdaptSet1-I Module Input State: Adaptive Parameter1








15 Selection Lists

Options Description
































15 Selection Lists

Options Description










87[1] . Active Signal: Active

87[1] . ExBlo Signal: External Blocking

87[1] . Blo TripCmd Signal: Trip Command blocked

87[1] . ExBlo TripCmd Signal: External Blocking of the Trip Command

87[1] . Pickup A Signal: 87 protection has started (Phase A).

87[1] . Pickup B Signal: 87 protection has started (Phase B).

87[1] . Pickup C Signal: 87 protection has started (Phase C).

87[1] . Pickup Signal: 87 protection has started.

87[1] . Trip A Signal: 87 protection has tripped (Phase A).

87[1] . Trip B Signal: 87 protection has tripped (Phase B).

87[1] . Trip C Signal: 87 protection has tripped (Phase C).

87[1] . Trip Signal: 87 protection has tripped.


87[1] . Check Zonereleased


87[1] . DefaultSet Signal: Default Parameter Set

87[1] . AdaptSet 1 Signal: Adaptive Parameter 1




87[1] . ExBlo1-I Module Input State: External Blocking1


15 Selection Lists

Options Description


87[1] . ExBlo TripCmd-I Module Input State: External Blocking of the Trip Command

87[1] . Ex Rel. CheckZone-I


87[1] . AdaptSet1-I Module Input State: Adaptive Parameter1



























15 Selection Lists

Options Description
































15 Selection Lists

Options Description







ExP[1] . Active Signal: Active

ExP[1] . ExBlo Signal: External Blocking

ExP[1] . Blo TripCmd Signal: Trip Command blocked

ExP[1] . ExBlo TripCmd Signal: External Blocking of the Trip Command

ExP[1] . Alarm Signal: Alarm

ExP[1] . Trip Signal: Trip

ExP[1] . TripCmd Signal: Trip Command

ExP[1] . ExBlo1-I Module Input State: External Blocking1


ExP[1] . ExBlo TripCmd-I Module Input State: External Blocking of the Trip Command

ExP[1] . Alarm-I Module Input State: Alarm

ExP[1] . Trip-I Module Input State: Trip














15 Selection Lists

Options Description

























Wired Inputs . 86T NO-I State of the module input: Position indication of the lockout relay (86TRIP / normally open contact). The signal is inactive (i.e. contact isopen) if the lockout relay is in reset state.

Wired Inputs . 86T NC-I State of the module input: Position indication of the lockout relay (86TRIP / normally closed contact). The signal is active (i.e. contact isclosed) if the lockout relay is in reset state.


15 Selection Lists

Options Description

Wired Inputs . 86 CT NO-I

State of the module input: Position indication of the lockout relay (86CT / normally open contact). The signal is inactive (i.e. contact is open)if the lockout relay is in reset state.

Wired Inputs . 86 CT NC-I State of the module input: Position indication of the lockout relay (86CT / normally closed contact). The signal is inactive (i.e. contact isopen) if the lockout relay is in reset state.

Wired Inputs . CheckZone-I

State of the module input: Input of Check Zone relay.

TCM[1] . Active Signal: Active

TCM[1] . ExBlo Signal: External Blocking

TCM[1] . Pickup Signal: Pickup Trip Circuit Supervision

TCM[1] . Not Possible Not possible because no state indicator has been assigned to theLockout Relay.

TCM[1] . Cin NC-I Module input state: This is the feedback signal indicating that theLockout Relay is in the RESET position. (This is normally implementedby using the NC contact.)

TCM[1] . Cin NO-I Module input state: This is the feedback signal indicating that theLockout Relay is in the TRIPPED position. (This is normally implementedby using the NO contact.)

TCM[1] . ExBlo1-I Module Input State: External Blocking1


TCM[2] . Active Signal: Active

TCM[2] . ExBlo Signal: External Blocking

TCM[2] . Pickup Signal: Pickup Trip Circuit Supervision

TCM[2] . Not Possible Not possible because no state indicator has been assigned to theLockout Relay.

TCM[2] . Cin NC-I Module input state: This is the feedback signal indicating that theLockout Relay is in the RESET position. (This is normally implementedby using the NC contact.)

TCM[2] . Cin NO-I Module input state: This is the feedback signal indicating that theLockout Relay is in the TRIPPED position. (This is normally implementedby using the NO contact.)






15 Selection Lists

Options Description







RO-5 X2 . RO 1 Signal: Relay Output





RO-5 X2 . DISARMED! Signal: CAUTION! RELAYS DISARMED in order to safely performmaintenance while eliminating the risk of taking an entire process off-line. (Note: Zone Interlocking and Supervision Contact cannot bedisarmed). YOU MUST ENSURE that the relays are ARMED AGAIN aftermaintenance

RO-5 X2 . Outs forced Signal: The State of at least one Relay Output has been set by force.That means that the state of at least one Relay is forced and hencedoes not show the state of the assigned signals.

Event rec . Res allrecords

Signal: All records are being deleted. (Remark: Immediately afterwards,this signal becomes inactive again.)

Waveform rec .Recording

Signal: Recording

Waveform rec . Memoryfull

Signal: Memory Full

Waveform rec . Clear fail Signal: Clear Failure in Memory

Waveform rec . Res allrecords


Waveform rec . Res allrecords


Waveform rec . Man.Trigger

Signal: Manual Trigger

Waveform rec . Start1-I State of the module input:: Trigger event / start recording




15 Selection Lists

Options Description






Fault rec . Res allrecords


Trend rec . Res allrecords


SSV . System Error Signal: Device Failure

SSV . SelfSuperVisionContact

Signal: SelfSuperVision Contact

SCADA . Commconnected

At least one Communication system is connected to the device.

SCADA . Comm notconnected

No Communication system is connected to the device.

DNP . busy This message is set if the protocol is started. It will be reset if theprotocol is shut down.

DNP . ready The message will be set if the protocol is successfully started and readyfor data exchange.

DNP . active The communication with the Master (SCADA) is active.

Note that for TCP/UDP, this state is permanently “Low”unless »DataLink confirm« is set to “Always”.

DNP . BinaryOutput0 Virtual Digital Output (DNP). This corresponds to a virtual binary inputof the protective device.







15 Selection Lists

Options Description





















15 Selection Lists

Options Description








DNP . BinaryInput0-I Virtual Digital Input (DNP). This corresponds to a virtual binary output ofthe protective device.













15 Selection Lists

Options Description





















15 Selection Lists

Options Description





















15 Selection Lists

Options Description















Modbus . TransmissionRTU


Modbus . TransmissionTCP


Modbus . Comm Cmd 1 Communication Command






15 Selection Lists

Options Description












Modbus . Config BinInp1-I

























15 Selection Lists

Options Description








































15 Selection Lists

Options Description



IEC61850 . MMS Clientconnected

At least one MMS client is connected to the device

IEC61850 . All GooseSubscriber active

All Goose subscriber in the device are working

IEC61850 . VirtInp1 Signal: Virtual Input (IEC61850 GGIO Ind)


























15 Selection Lists

Options Description








IEC61850 . Quality ofGGIO In1





























15 Selection Lists

Options Description





































IEC61850 . SPCSO1 Status bit that can be set by clients like e.g. the Master CommunicationSystem (Single Point Controllable Status Output).


15 Selection Lists

Options Description





















15 Selection Lists

Options Description













IEC61850 . VirtOut1-I Module input state: Binary state of the Virtual Output (GGIO)












15 Selection Lists

Options Description






















Profibus . Data OK Data within the input field are OK (Yes=1)

Profibus . SubModul Err Assignable Signal, Failure in Sub-Module, Communication Failure.

Profibus . Connectionactive

Connection active

Profibus . Comm Cmd 1 Communication Command






15 Selection Lists

Options Description












IRIG-B . IRIG-B active Signal: If there is no valid IRIG-B signal for 60 sec, IRIG-B is regarded asinactive.

IRIG-B . High-Low Invert Signal: The High and Low signals of the IRIG-B are inverted. This doesNOT mean that the wiring is faulty. If the wiring is faulty no IRIG-Bsignal will be detected.

IRIG-B . Control Signal1 Signal: IRIG-B Control Signal. The external IRIG-B generator can setthese signals. They can be used for further control procedures insidethe device (e.g. logic funtions).








15 Selection Lists

Options Description



IRIG-B . ControlSignal10

Signal: IRIG-B Control Signal. The external IRIG-B generator can setthese signals. They can be used for further control procedures insidethe device (e.g. logic funtions).

















SNTP . SNTP active Signal: If there is no valid SNTP signal for 120 sec, SNTP is regarded asinactive.

TimeSync .synchronized

Clock is synchronized.

Statistics . ResFc Max Signal: Resetting of all Maximum values

Logic . LE1.Gate Out Signal: Output of the logic gate

Logic . LE1.Timer Out Signal: Timer Output


15 Selection Lists

Options Description

Logic . LE1.Out Signal: Latched Output (Q)

Logic . LE1.Out inverted Signal: Negated Latched Output (Q NOT)

Logic . LE1.Gate In1-I State of the module input: Assignment of the Input Signal




Logic . LE1.Reset Latch-I


























15 Selection Lists

Options Description

































15 Selection Lists

Options Description






























Logic . LE10.Outinverted



15 Selection Lists

Options Description





Logic . LE10.ResetLatch-I




























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Options Description


































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15 Selection Lists

Options Description















Sgen . Manual Start Fault Simulation has been started manually.

Sgen . Manual Stop Fault Simulation has been stopped manually.

Sgen . Running Signal: Measuring value simulation is running

Sgen . Started Fault Simulation has been started

Sgen . Stopped Fault Simulation has been stopped

Sgen . Ex StartSimulation-I

State of the module input:External Start of Fault Simulation (Using thetest parameters)

Sgen . ExBlo1-I Module Input State: External Blocking1

Sgen . ExBlo2-I Module Input State: External Blocking2

Sgen . Ex ForcePost-I State of the module input:Force Post state. Abort simulation.

Sys . PS 1 Signal: The currently active Parameter Set is PS 1




Sys . PSS manual Signal: Manual switch over of a Parameter Set

Sys . PSS via Comm Signal: Parameter Set Switch via Scada. Write into this output byte theinteger of the parameter set that should become active (e.g. 4 =>Switch onto parameter set 4).


15 Selection Lists

Options Description

Sys . PSS via Inp fct Signal: Parameter Set Switch via Input Function

Sys . Min. 1 paramchanged

Signal: At least one parameter has been changed

Sys . Program ModeBypass

Signal: Short-period bypass of the Program Mode.

Sys . Ack LED Signal: LEDs Acknowledgment

Sys . Ack RO Signal: Acknowledgment of the Relay Outputs

Sys . Ack Comm Signal: Acknowledge latched communication (SCADA) signals

Sys . Ack TripCmd Signal: Reset Trip Command

Sys . Ack LED-HMI Signal: LEDs Acknowledgment :HMI

Sys . Ack RO-HMI Signal: Acknowledgment of the Relay Outputs :HMI

Sys . Ack Comm-HMI Signal: Acknowledge latched communication (SCADA) signals :HMI

Sys . Ack TripCmd-HMI Signal: Reset Trip Command :HMI

Sys . Ack LED-Comm Signal: LEDs Acknowledgment :Communication

Sys . Ack RO-Comm Signal: Acknowledgment of the Relay Outputs :Communication

Sys . Ack Counter-Comm

Signal: Reset of all Counters :Communication

Sys . Ack Comm-Comm Signal: Acknowledge latched communication (SCADA)signals :Communication

Sys . Ack TripCmd-Comm

Signal: Reset Trip Command :Communication

Sys . Ack LED-I Module Input State: LEDs Acknowledgment by Digital Input.

Sys . Ack RO-I Module Input State: Acknowledgment of the Relay Outputs.

Sys . Ack Comm-I Module Input State: Acknowledge latched communication (SCADA)signals.

Sys . PS1-I State of the module input, respectively of the signal, that shouldactivate this Parameter Setting Group.





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Options Description

Sys . Program Mode-I State of the module input: Parameters can only be changed as long asthis input is true. (This means the parameter settings are locked whenthis input is false.)

Sys . Internal test state Auxiliary state for testing purposes.

Active/Inactive


• ╚═▷ Prot . ExBlo Fc

• ╚═▷ 87[1] . ExBlo Fc

• ╚═▷ 87[1] . ExBlo TripCmd Fc

• ╚═▷ 87[1] . Ex Rel. Check Zone Fc

• ╚═▷ 87SV[1] . ExBlo Fc

• ╚═▷ ExP[1] . ExBlo Fc

• [ . . . ]

Options Description

Inactive Inactive

Active Active

Mode



• ╚═▷ RO-5 X2 . Disarm Mode

• ╚═▷ RO-5 X2 . Force Mode

Options Description

Permanent Permanent

Timeout Timeout


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Active/Inactive


• ╚═▷ RO-5 X2 . DISARMED

Options Description

Inactive Inactive

Active Active

Relay operating modes


• ╚═▷ RO-5 X2 . Force all Outs

• ╚═▷ RO-5 X2 . Force RO1

Options Description

Normal Normal

De-Energized De-Energized

Energized Energized

Mode



• ╚═▷ LEDs group A . Latched






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• [ . . . ]

Options Description

Inactive Inactive

Active Active

active, ack. by pickup Latching of LEDs is active, but will be acknowledged (reset)automatically (by a protection function) in case of a new pickup.

LED Active Color


• ╚═▷ LEDs group A . LED Active Color

• ╚═▷ LEDs group A . LED Inactive Color





• [ . . . ]

Options Description

Green Green

Red Red

Red flash Red flashing

Green flash Green blinking


Reset Options

If the »Ack/Rst« key is pressed while the device is performing a cold restart a generalReset Dialog appears on the screen. Select which options shall be available with thisdialog.


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• ╚═▷ HMI . Reset Options

Options Description

“Fact.def.”, “PW rst” Two Reset Options shall be available:

- "Reset to factory defaults",

- "Reset passwords".

Only “Fact.defaults” Only one Reset Option shall be available:

- "Reset to factory defaults".

CAUTION: If this option has been chosen and the password should everget lost then the only chance to recover control is to reset theprotection device to factory defaults.

Reset deact. The Reset Options shall be deactivated.

CAUTION: If this option has been chosen and the password should everget lost, then the protection device has to be sent to the manufactureras a service request.

Program Mode


• ╚═▷ Sys . Program Mode

Options Description

- . Always Always active







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PSet-Switch

Switching Parameter Set


• ╚═▷ Sys . PSet-Switch

Options Description

PS1 The currently active Parameter Set is PS1




PSS via Inp fct Parameter Set Switch via Input Function

PSS via Comm Parameter Set Switch via Scada. Write into this output byte the integerof the parameter set that should become active (e.g. 4 => Switch ontoparameter set 4).


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1..n, PSS

List of the available Parameter Setting Group Switching Signals


• ╚═▷ Sys . PS1: Activated by

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Options Description

Sys . Maint ModeActive

Signal: Arc Flash Reduction Maintenance Active

Sys . Maint ModeInactive

Signal: Arc Flash Reduction Maintenance Inactive

Ack via »Ack/Rst« key

Select which acknowledgeable elements can be reset via pressing the »Ack/Rst« key.


• ╚═▷ Sys . Ack via »Ack/Rst« key

Options Description

Nothing No elements can be simply reset via pressing the »Ack/Rst« key. Thishas the consequence that pressing the »Ack/Rst« key is only a shortcutto the Acknowledge menu, from which the user has to select theelements to be reset.

Ack LEDs All LEDs are reset via pressing the »Ack/Rst« key. The reset activity canbe recognized from the fact that it always includes an LED test, i.e. allLEDs flash in red color for a second, then flash in green color for asecond.

Ack LEDs and RO All LEDs and all acknowledgeable Relay Outputs are reset via pressingthe »Ack/Rst« key. The reset activity can be recognized from the factthat it always includes an LED test, i.e. all LEDs flash in red color for asecond, then flash in green color for a second.

Ack Everything All acknowledgeable elements are reset via pressing the »Ack/Rst« key:

- All LEDs, and

- all binary output relays, and

- all latched SCADA signals, and

- the Trip command.

The reset activity can be recognized from the fact that it alwaysincludes an LED test, i.e. all LEDs flash in red color for a second, thenflash in green color for a second.


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Yes/No


• ╚═▷ Sys . Reboot

Options Description

No No

Yes Yes


• ╚═▷ Sys . DM version

Options Description

3.5.b Version

Used Protocol

Used Communication Protocol


• ╚═▷ SCADA . Protocol

Options Description

“-” Do not use

Modbus RTU Modbus Protocol RTU

Modbus TCP Modbus Protocol TCP

Modbus TCP/RTU Modbus Protocol TCP/RTU

DNP RTU Distributed Network Protocol RTU

DNP TCP Distributed Network Protocol TCP

DNP UDP Distributed Network Protocol UDP

IEC61850 IEC61850

Profibus Profibus Module


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Baud rate


• ╚═▷ DNP . Baud rate

Options Description

1200 1200

2400 2400

4800 4800

9600 9600

19200 19200

38400 38400

57600 57600

115200 115200

Byte Frame


• ╚═▷ DNP . Frame Layout

Options Description

8E1 8 data bits, even parity, 1 stopbit.

8O1 8 data bits, odd, 1 stopbit.

8N1 8 data bits, no parity, 1 stopbit.

8N2 8 data bits, no parity, 2 stopbits.




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• ╚═▷ DNP . Optical rest position

Options Description

Light off Light off

Light on Light on

Communication Start Variants


• ╚═▷ DNP . DataLink confirm

Options Description

Never Option Never is recommended

Always If this variable is set to Always then LinkLayer needs to establish aconnection before sending any Frame.

On_Large If set to On_Large then a connection needs to be established beforesending the first Frame of a multi Term Message

_AL_ResponseType_k

_AL_ResponseType_h


• ╚═▷ DNP . AppLink confirm

Options Description

Never Never

Always Always

Event Event


Assignment List


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• ╚═▷ DNP . DoubleBitInput 0

Options Description


86[1] . Pos Signal: Lockout Relay position (0 = Indeterminate, 1 = TRIPPED, 2 =RESET, 3 = Disturbed)



Assignment List


• ╚═▷ DNP . BinaryCounter 0

Options Description


Prot . FaultNo Waveform No.

Prot . No of GridFaults Number of grid fault: A grid fault, e.g. a short circuit, might causeseveral faults with trip and autoreclosing; in this case, the fault numbercounts each fault, but the grid fault number remains the same.

86[1] . TripCmd Cr Counter: Total number of trips of the switch.

86[2] . TripCmd Cr Counter: Total number of trips of the switch.

Sys . Operating hoursCr

Operating hours counter of the protective device

1..n, TrendRecList


• ╚═▷ Trend rec . Observed Value1




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• ╚═▷ DNP . Analog value 0

• ╚═▷ Modbus . Mapped Meas 1

Options Description


EBR-Z . 87VA Measured value: Voltage at the Resistor of the High-Impedance Module,Phase A

EBR-Z . 87VB Measured value: Voltage at the Resistor of the High-Impedance Module,Phase B

EBR-Z . 87VC Measured value: Voltage at the Resistor of the High-Impedance Module,Phase C

Scale Factor

Multiplier in order to convert float values into integer.


• ╚═▷ DNP . Scale Factor 0

Options Description

0.001 0.001

0.01 0.01

0.1 0.1

1 1

10 10

100 100

1000 1000

10000 10000

100000 100000

1000000 1000000


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• ╚═▷ Modbus . Optical rest position

Options Description

Light off Light off

Light on Light on

Port selection


• ╚═▷ Modbus . TCP Port Config

Options Description

Default Default Port

Private Private Port

Baud rate


• ╚═▷ Modbus . Baud rate

Options Description

1200 1200

2400 2400

4800 4800

9600 9600

19200 19200

38400 38400


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Byte Frame


• ╚═▷ Modbus . Physical Settings

Options Description

8E1 8 data bits, even parity, 1 stopbit.

8O1 8 data bits, odd, 1 stopbit.

8N1 8 data bits, no parity, 1 stopbit.

8N2 8 data bits, no parity, 2 stopbits.

1..n, OnOffList


• ╚═▷ IEC61850 . Function

Options Description

Inactive Inactive

Active Active

State


• ╚═▷ IEC61850 . GoosePublisherState

• ╚═▷ IEC61850 . GooseSubscriberState

• ╚═▷ IEC61850 . MmsServerState

Options Description

Off Off

On On

Error Error


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State


• ╚═▷ Profibus . Slave State

Options Description

Baud Search No connection to the PROFIBUS-DP Master

Baud Found The PROFIBUS DP Slave is connected to the bus. The slave has not yetbeen addressed by the master device (and it was not yet addressedsince the last break of the connection).

PRM OK The slave was addressed by the master, the parameter settingmessage was received and is OK, a configuration message is expectedfrom the master.

PRM REQ The slave is no longer addressed by the master (modified parameterswithin the master without having the connection stopped, mastersoftware is tuned off but lower PROFIBUS layer is still active).

PRM Fault An error in the parameter setting message (e.g.: wrong PNOidentification number)

CFG Fault Configuration error the number of input/output bytes parameterized inthe master does not match the number parametrized in the device(slave).

Clear Data Master sends a General Control command to clear the data.

Data exchange Master and slave exchange data.

Baud rate


• ╚═▷ Profibus . Baud rate

Options Description

12 Mb/s 12 Mb/s

6 Mb/s 6 Mb/s

3 Mb/s 3 Mb/s

1.5 Mb/s 1.5 Mb/s

0.5 Mb/s 0.5 Mb/s


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Options Description

187500 baud 187500 baud

93750 baud 93750 baud

45450 baud 45450 baud

19200 baud 19200 baud

9600 baud 9600 baud

-.- -.-

PNO Id

PNO Identification Number. GSD Identification Number.


• ╚═▷ Profibus . PNO Id

Options Description

0C50h PnodID for the Config file.

Mode



• ╚═▷ IRIG-B . Mode

Options Description

“-” Do not use

Use Use

Mode



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• ╚═▷ SNTP . Mode

Options Description

“-” Do not use

Use Use

Server State

Server State.


• ╚═▷ SNTP . Used Server

Options Description

Server1 Server1 used.

Server2 Server2 used.

None No Server used.

State


• ╚═▷ SNTP . ServerQlty

• ╚═▷ SNTP . NetConn

Options Description

GOOD GOOD

SUFFICIENT SUFFICIENT

BAD BAD

“-” NO CONNECTION


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fN


• ╚═▷ System Para . f

Options Description

50 Rated frequency

60 Rated frequency

Device Planning


• ╚═▷ 87[1] . Mode

Options Description

“-” Do not use

Any phase (ABC) The function gets activated for all three high impedance inputs.

1-phase (A) The function gets activated for one phase only: Phase A

1-phase (B) The function gets activated for one phase only: Phase B

1-phase (C) The function gets activated for one phase only: Phase C

AdaptSet

Adaptive Parameters


• ╚═▷ 87[1] . AdaptSet 1

• ╚═▷ 87[1] . AdaptSet 2

• ╚═▷ 87[1] . AdaptSet 3

• ╚═▷ 87[1] . AdaptSet 4

• ╚═▷ 87SV[1] . AdaptSet 1

• ╚═▷ 87SV[1] . AdaptSet 2


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• [ . . . ]

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Sys . Maint ModeActive

Signal: Arc Flash Reduction Maintenance Active


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Options Description

Sys . Maint ModeInactive

Signal: Arc Flash Reduction Maintenance Inactive

Blo by 87SV

Blocking of the 87 protection module in case of a pickup of the assigned instance of the87SV supervision.


• ╚═▷ 87[1] . Blo by 87SV

Options Description


. 87SV[1] Open CT Supervision



Device Planning


• ╚═▷ 87SV[1] . Mode

Options Description

“-” Do not use

Any phase (ABC) The function gets activated for all three high impedance inputs.

1-phase (A) The function gets activated for one phase only: Phase A

1-phase (B) The function gets activated for one phase only: Phase B

1-phase (C) The function gets activated for one phase only: Phase C


15 Selection Lists

Device Planning


• ╚═▷ ExP[1] . Mode

Options Description

“-” Do not use

Use Use

Switching Authority


• ╚═▷ Ctrl . Switching Authority

Options Description

None None

Local Local

Remote Remote

Local and Remote Local and Remote

1..n, Trip Cmds

List of available Trip Commands


• ╚═▷ 86[1] . TRIP Cmd1

• ╚═▷ 86[1] . TRIP Cmd2

Options Description






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Options Description








1..n, Dig Inputs

List of Digital Inputs, that are available for the detection of the Breaker Position.


• ╚═▷ TCM[1] . Input 1

• ╚═▷ TCM[1] . Input 2

• ╚═▷ 86[1] . Cin NC

• ╚═▷ 86[1] . Cin NO

Options Description










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1..n, DI-LogicList


• ╚═▷ 86[1] . SC RESET

• ╚═▷ 86[1] . SC TRIP

Options Description












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True or Not True


• ╚═▷ Waveform rec . Man. Trigger

• ╚═▷ SSV . Ack System LED

Options Description

False False

True True

Rec state

Recording state


• ╚═▷ Waveform rec . Rec state

Options Description

Ready Ready


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Options Description

Recording Recording

Writing file Signal: Writing file

Trigger Blo Trigger signal is still active - wait for dropout. A new record can only bestarted if and only the trigger signal that started the previous recordhas fallen back once. Therewith endless records are prevented.

Fault


• ╚═▷ Waveform rec . Error code

Options Description

OK OK

Write err Signal: Writing Error in Memory

Clear fail Signal: Clear Failure in Memory

Calculation err Calculation error

File not found File not found

Auto overwriting off If there is no more memory available the record is being stopped.

Record-Mode

Recorder Mode (Set the behaviour of the recorder)


• ╚═▷ Fault rec . Record-Mode

Options Description

Pickups and Trips A recording is started in case of a pickup or a trip.

Trips only A recording is started only in case of a trip.


15 Selection Lists

Resolution

Resolution (recording frequency)


• ╚═▷ Trend rec . Resolution

Options Description

60 min Add next entry: 60 min





No of Equations:

Number of required Logic Equations:


• ╚═▷ Logic . No of Equations:

Options Description

0 0

5 5

10 10

20 20

40 40

80 80

LE1.Gate

Logic gate



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• ╚═▷ Logic . LE1.Gate

Options Description

AND AND Gate

OR OR Gate

NAND NAND Gate

NOR NOR Gate

Device Planning


• ╚═▷ TCM[1] . Mode

Options Description

“-” Do not use

Use Use

Bkr Manager

Breaker States


• ╚═▷ TCM[1] . 86 Pos Detect

• ╚═▷ TCM[2] . 86 Pos Detect

Options Description





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Mode



• ╚═▷ TCM[1] . Mode

Options Description

RESET Selects that the Lockout Relay is going to be monitored when it is instate RESET.

Either Selects that the Lockout Relay is going to be monitored in both statesRESET and TRIPPED.

Mode



• ╚═▷ Sgen . Mode

Options Description

“-” Do not use

Use Use

TripCmd Mode

Trip Command Mode: Select between two operating modes for the Fault Simulator: "coldsimulation” (without tripping the Breaker), or "hot simulation” (i.e. the simulation isauthorized to trip the Breaker)


• ╚═▷ Sgen . TripCmd Mode

Options Description

No TripCmd No Trip Command: The TripCmd of all protection functions is blocked.The protection function will possibly trip but not generate a TripCmd.

With TripCmd With Trip Command: The trip of a protection function generates aTripCmd, that can open the Breaker.


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State


• ╚═▷ Sgen . State

Options Description

Off Off

PreFault Pre Fault Duration

FaultSimulation Duration of Fault Simulation

PostFault Post Fault Duration

Init Res Init Reset


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. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 127, 129, 129, 130, 132, 132, 132, 132

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 133, 135, 135, 136, 138, 138, 138, 139

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 115, 115, 116, 117, 117

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 108, 108, 109, 111, 112

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 125, 125, 125

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63, 68, 69, 69, 70

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57, 58

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 140, 140

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 120, 120, 121, 122, 122

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 145, 145, 146

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 43, 43

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81, 81, 81, 82, 83, 85, 85

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 90, 90, 91, 91, 91

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 149, 150, 151, 152

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 71, 76, 76, 76, 78, 78

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86, 87, 87, 87, 88, 88

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 105, 105, 105, 106

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62, 62

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 93, 93, 94, 94, 94, 95

Index8

86[1] 86[2] 87SV[1] 87[1]

C

Ctrl

D

DNP

E

EBR-Z Event rec ExP[1]

F

Fault rec

H

HMI

I

IEC61850 IRIG-B

L

Logic

M

Modbus

P

Profibus Prot

S

SCADA SNTP


Index

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 154, 154, 154

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161, 161, 163, 163, 164, 165, 166

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60, 60, 60, 60

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 49, 51, 52, 53, 56

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 155, 155, 156, 157, 157

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 101

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 97, 100

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 147, 148, 148, 148

. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 141, 142, 142, 143, 143

SSV Sgen Statistics Sys

T

TCM[1] TcpIp TimeSync Trend rec

W

Waveform rec


Index

Instruction Leaflet IB150018EN

Effective 2018-05-29

EBR-3000

This instruction leaflet is published solely for information purposesand should not be considered all-inclusive. If further information isrequired, you should consult an authorized Eaton sales representative.The sale of the product shown in this literature is subject to theterms and conditions outlined in appropriate Eaton selling policiesor other contractual agreement between the parties. This literatureis not intended to and does not enlarge or add to any such contract.The sole source governing the rights and remedies of any purchaserof this equipment is the contract between the purchaser and Eaton.NO WARRANTIES, EXPRESSED OR IMPLIED, INCLUDINGWARRANTIES OF FITNESS FOR A PARTICULAR PURPOSE ORMERCHANTABILITY, OR WARRANTIES ARISING FROM COURSEOF DEALING OR USAGE OF TRADE, ARE MADE REGARDINGTHE INFORMATION, RECOMMENDATIONS, AND DESCRIPTIONS

In no event will Eaton be responsible to the purchaser or userin contract, in tort (including negligence), strict liabilityor otherwise for any special, indirect, incidental orconsequential damage or loss whatsoever, including but not limited todamage or loss of use of equipment, plant or power system, costof capital, loss of power, additional expenses in the use of existingpower facilities, or claims against the purchaser or user by itscustomers resulting from the use of the information,recommendations and description contained herein.

CONTAINED HEREIN.

EatonElectrical Sector1000 Eaton BoulevardCleveland, OH 44122United States877-ETN-CARE (877-386-2273)Eaton.com © 2018 Eaton CorporationAll Rights ReservedPrinted in USA

Documents

High Impedance Differential Protection Relay EBR-3000 · 2020-02-11 · EBR-3000 Reference Manual High Impedance Differential Protection Relay Version: 3.5.b (Build 37879) IB150018EN