Function Manual Library SENTRON 3WL / 3VL for SIMATIC PCS 7 · Library SENTRON 3WL / 3VL for...

SENTRON 3WL / 3VLLibrary for SIMATIC PCS 7 V1.0

Function Manual • 11/2008

SIMATIC

Introduction 1

Information about the library

2

Description of blocks

3

Configuration Manual

4

Technical specifications

5

Technical support

6

Library SENTRON 3WL / 3VL for SIMATIC PCS 7

Function Manual

11/2008 A5E02316914A-01

V1.0

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WARNING indicates that death or severe personal injury may result if proper precautions are not taken.

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NOTICE indicates that an unintended result or situation can occur if the corresponding information is not taken into account.

If more than one degree of danger is present, the warning notice representing the highest degree of danger will be used. A notice warning of injury to persons with a safety alert symbol may also include a warning relating to property damage.

Qualified Personnel The device/system may only be set up and used in conjunction with this documentation. Commissioning and operation of a device/system may only be performed by qualified personnel. Within the context of the safety notes in this documentation qualified persons are defined as persons who are authorized to commission, ground and label devices, systems and circuits in accordance with established safety practices and standards.

Proper use of Siemens products Note the following:

WARNING Siemens products may only be used for the applications described in the catalog and in the relevant technical documentation. If products and components from other manufacturers are used, these must be recommended or approved by Siemens. Proper transport, storage, installation, assembly, commissioning, operation and maintenance are required to ensure that the products operate safely and without any problems. The permissible ambient conditions must be adhered to. The information in the relevant documentation must be observed.

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A5E02316914A-01 Ⓟ 11/2008

Copyright © Siemens AG 2008. Technical data subject to change

Library SENTRON 3WL / 3VL for SIMATIC PCS 7 Function Manual, 11/2008, A5E02316914A-01 3

Table of contents

1 Introduction................................................................................................................................................ 7

1.1 General ..........................................................................................................................................7 1.2 Further documentation...................................................................................................................7 1.3 Installing the library ........................................................................................................................7 1.4 Hardware configuration..................................................................................................................8 1.4.1 Incorporating via GSD file ..............................................................................................................8

2 Information about the library .................................................................................................................... 13 2.1 Overview of the blocks.................................................................................................................13 2.2 General information about OS typicals ........................................................................................13 2.2.1 Faceplates....................................................................................................................................13 2.2.2 Symbols .......................................................................................................................................15

3 Description of blocks................................................................................................................................ 17 3.1 Diagnostics block DIA_WLVL ......................................................................................................17 3.1.1 Calling OBs ..................................................................................................................................18 3.1.2 Called blocks................................................................................................................................18 3.1.3 Function .......................................................................................................................................18 3.1.4 Message behavior........................................................................................................................18 3.1.5 Error behavior ..............................................................................................................................19 3.1.6 I/O access error ...........................................................................................................................19 3.1.7 Module fault..................................................................................................................................19 3.1.8 Read diagnostics data of 3WL / 3VL ...........................................................................................19 3.1.9 Start-up characteristics ................................................................................................................20 3.1.10 Block parameters .........................................................................................................................20 3.2 Driver module DRV_3WL.............................................................................................................22 3.2.1 Calling OBs ..................................................................................................................................22 3.2.2 Called blocks................................................................................................................................23 3.2.3 Function .......................................................................................................................................23 3.2.4 Message behavior........................................................................................................................26 3.2.5 Assignment of the cyclic process image......................................................................................27 3.2.6 Addressing and module driver .....................................................................................................28 3.2.7 Processing the diagnostics data of the 3WL device ....................................................................28 3.2.8 Start-up characteristics ................................................................................................................29 3.2.9 Block parameters .........................................................................................................................29 3.2.10 Description of symbols and faceplates ........................................................................................60 3.3 Driver module DRV_3VL..............................................................................................................95 3.3.1 Calling OBs ..................................................................................................................................96 3.3.2 Called blocks................................................................................................................................96 3.3.3 Function .......................................................................................................................................96 3.3.4 Message behavior........................................................................................................................99 3.3.5 Assignment of the cyclic process image....................................................................................100 3.3.6 Addressing and module driver ...................................................................................................101 3.3.7 Processing the diagnostics data of the 3VL device ...................................................................102 3.3.8 Start-up characteristics ..............................................................................................................102

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Library SENTRON 3WL / 3VL for SIMATIC PCS 7 4 Function Manual, 11/2008, A5E02316914A-01

3.3.9 Block parameters ...................................................................................................................... 102 3.3.10 Description of symbols and faceplates ..................................................................................... 111

4 Configuration Manual............................................................................................................................. 125 4.1 Interconnections on COM15 for 3WL........................................................................................ 125 4.1.1 24V DC voltage ......................................................................................................................... 126 4.1.2 Other voltage levels .................................................................................................................. 127 4.2 Interconnections on COM10 for 3VL......................................................................................... 128 4.2.1 Connection for communication ................................................................................................. 128 4.2.2 Connection for motorized operating mechanism ...................................................................... 129 4.3 Connection on COM20 for 3VL................................................................................................. 130 4.3.1 COM20 pin assignment............................................................................................................. 130 4.3.2 Connecting the optional motorized operating mechanism to COM20 ...................................... 131 4.4 Configuring a measuring point .................................................................................................. 132 4.4.1 Creating the PLC program ........................................................................................................ 132 4.4.2 Connection to WinCC................................................................................................................ 135

5 Technical specifications......................................................................................................................... 139 6 Technical support .................................................................................................................................. 141

Figures

Figure 1-1 Catalog path for incorporating via GSD file................................................................................... 8 Figure 1-2 Selection of basic type for 3WL .................................................................................................... 8 Figure 1-3 Selection of basic type for 3VL ..................................................................................................... 9 Figure 1-4 Properties of the 3WL / 3VL device directly connected to the DP master system...................... 10 Figure 1-5 Properties of the 3WL / 3VL device following a Y link ................................................................ 11 Figure 2-1 Section of the overview display................................................................................................... 13 Figure 2-2 Trend setting on the icon............................................................................................................. 14 Figure 2-3 Icons in Graphics Designer ......................................................................................................... 15 Figure 3-1 Symbol with 1 measurement....................................................................................................... 61 Figure 3-2 Faceplate for standard view........................................................................................................ 63 Figure 3-3 Faceplate for measurements view, current tab........................................................................... 65 Figure 3-4 Faceplate for measurements view, voltage tab .......................................................................... 66 Figure 3-5 Faceplate for measurements view, active power/energy tab...................................................... 67 Figure 3-6 Faceplate for measurements view, reactive power/energy tab .................................................. 68 Figure 3-7 Faceplate for measurements view, apparent power tab............................................................. 69 Figure 3-8 Faceplate for measurements view, miscellaneous tab ............................................................... 70 Figure 3-9 Faceplate for diagnosis view, warnings tab ................................................................................ 71 Figure 3-10 Faceplate for diagnosis view, trip reason tab.............................................................................. 72 Figure 3-11 Faceplate for diagnosis view, setpoints tab ................................................................................ 74 Figure 3-12 Faceplate for maintenance view, maintenance 1 tab ................................................................. 76

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Figure 3-13 Faceplate for maintenance view, maintenance 2 tab ..................................................................77 Figure 3-14 Faceplate for maintenance view, operation tab...........................................................................79 Figure 3-15 Faceplate for protect. para view, parameter set A.......................................................................80 Figure 3-16 Faceplate for protect. para view, parameter set B.......................................................................82 Figure 3-17 Faceplate for protect. para view, additional tab ...........................................................................84 Figure 3-18 Faceplate for ext. protect. para view, current tab ........................................................................85 Figure 3-19 Faceplate for ext. protect. para view, voltage tab........................................................................86 Figure 3-20 Faceplate for ext. protect. para view, reactive power tab ............................................................87 Figure 3-21 Faceplate for ext. protect. para view, frequency tab....................................................................88 Figure 3-22 Faceplate for setpoints view, current tab .....................................................................................89 Figure 3-23 Faceplate for setpoints view, voltage tab.....................................................................................90 Figure 3-24 Faceplate for setpoints view, frequency tab ................................................................................91 Figure 3-25 Faceplate for setpoints view, active power tab ............................................................................92 Figure 3-26 Faceplate for setpoints view, apparent/reactive power tab .........................................................94 Figure 3-27 Faceplate for message suppression view....................................................................................95 Figure 3-28 Symbol with 1 measurement......................................................................................................111 Figure 3-29 Faceplate for standard view.......................................................................................................113 Figure 3-30 Faceplate for measurements view.............................................................................................115 Figure 3-31 Faceplate for diagnosis view......................................................................................................116 Figure 3-32 Faceplate for maintenance view, maintenance 1 tab ................................................................118 Figure 3-33 Faceplate for maintenance view, operation tab.........................................................................119 Figure 3-34 Faceplate for protect. para view, protect. para tab ....................................................................120 Figure 3-35 Faceplate for protect. para view, additional tab .........................................................................121 Figure 3-36 Faceplate for ext. protect. para view..........................................................................................122 Figure 3-37 Faceplate for setpoints view ......................................................................................................123 Figure 3-38 Faceplate for message suppression view..................................................................................124 Figure 4-1 COM15 interconnection at 24V DC voltage...............................................................................126 Figure 4-2 COM15 interconnection at other voltage levels .........................................................................127 Figure 4-3 Connection for communication ..................................................................................................128 Figure 4-4 Connection for motorized operating mechanism .......................................................................129 Figure 4-5 COM20 connection to SENTRON VL ........................................................................................130 Figure 4-6 Driver block in CFC chart (not connected).................................................................................132 Figure 4-7 Compile program .......................................................................................................................133 Figure 4-8 Generate module driver .............................................................................................................133 Figure 4-9 Driver block in CFC chart connected .........................................................................................134 Figure 4-10 Basing the block icons on the plant hierarchy ...........................................................................135

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Figure 4-11 Creating block icons out of plant hierarchy ............................................................................... 136 Figure 4-12 Create block icons when compiling OS .................................................................................... 136 Figure 4-13 Link picture component with measuring point........................................................................... 137


Introduction 11.1 General

The Library SENTRON 3WL / 3VL for SIMATIC PCS 7 software package is used to connect the circuit breakers SENTRON 3WL and 3VL to a SIMATIC PCS 7 process control system and contains the following components: ● Block library with:

– DIA_WLVL: diagnostic block – DRV_3WL: PCS 7 block for recording measurements, setpoints, protective

parameters, etc. of a 3WL circuit-breaker – DRV_3VL: PCS 7 block for recording measurements, setpoints, protective

parameters, etc. of a 3VL circuit breaker – User objects and operating blocks for operating and observing measured data on the

OS ● Online help in German and English ● Manual in German and English The block library can be used in in the PCS 7 versions V6.1 SP1, V7.0 and V7.0 SP1.

1.2 Further documentation You can find further details in the following manuals: ● Manual for SENTRON WL and SENTRON VL circuit-breakers with communication

capability ● SENTRON WL Operating Manual ● SENTRON VL Operating Manual

1.3 Installing the library To start the installation, please insert the CD in the CD-ROM drive on your PG/PC and launch the "Setup.exe" program. All the other information you need will be provided during the installation process. Please also read the information in the readme file.

Introduction 1.4 Hardware configuration


1.4 Hardware configuration The driver concept for 3WL / 3VL supports operation of the circuit-breaker as a DP slave directly connected to the DP master system as well as connected following a Y-link DPV0 or DPV1. The circuit-breakers in this setup can be incorporated using a GSD file.

NOTICE In such cases ensure that the circuit-breaker's I/O data is within the control's process image. This is absolutely essential to the driver generator's functionality.

1.4.1 Incorporating via GSD file If the 3WL / 3VL device is incorporated via GSD SIEM80C0.gsd, it is entered in the hardware configuration catalog under PROFIBUS-DP → Other field devices → Switchgear:

Figure 1-1 Catalog path for incorporating via GSD file

The following I/O configuration applies for 3WL: ● Outputs: 2 bytes of digital control data ● Inputs: 44 bytes of binary status (2 bytes) and measurements with property bytes (42

bytes)

Figure 1-2 Selection of basic type for 3WL



This configuration corresponds to basic type 3 for 3WL. This basic type must be set to ensure operation. The following I/O configuration applies for 3VL: ● Outputs: 2 bytes of digital control data ● Inputs: 14 bytes of binary status (2 bytes) and measurements with property bytes (12

bytes)

Figure 1-3 Selection of basic type for 3VL

This configuration corresponds to basic type 1 for 3VL. This basic type must be set to ensure operation.



Configuration in HW config. In the HW config., 3WL / 3VL is installed with the corresponding GSD file (see above) and with basic type 3 and/or 1.

Figure 1-4 Properties of the 3WL / 3VL device directly connected to the DP master system



If 3WL / 3VL is connected following a Y-link DPV0 or DPV1, 3WL / 3VL must be configured in the HW config. as a DPV0 slave. All acyclic services and interrupts are deactivated. This means that the device no longer outputs diagnostic interrupts and data records can no longer be read from the device. For details of the effect that this has on the response of the blocks, refer to Section 3 Description of the blocks (Page 17).

Figure 1-5 Properties of the 3WL / 3VL device following a Y link

The start addresses of inputs and outputs must be located in the partial process image that is assigned to the watchdog interrupt OB in which the driver block is called. The LADDR parameter input of the driver block must be connected to the start address of the inputs of the 3WL / 3VLdevice. The assignment of the cyclic interface is included in the description of the driver block.




Information about the library 22.1 Overview of the blocks

The library contains the following blocks: Name Function Number DIA_WLVL Diagnostic block FB1742 DRV_3WL PCS 7 driver block FB1741 DRV_3VL PCS 7 driver block FB1740

2.2 General information about OS typicals

2.2.1 Faceplates Faceplates are configured with the Graphics Designer using the templates and PCS 7-specific standard views (Trend, Batch, and Alarm) provided by the Faceplate Designer. If other user objects and functions are required, they can be added. The faceplates described are provided as functional and tested examples and can be adapted by the user. Two icons and a group/loop display with all the necessary displays are provided for the driver block. The relevant group display is called using the icons.

Overview The display forms part of the @PG_DRV_3WL_OVERVIEW.pdl / @PL_DRV_3WL.pdl (and/or @PG_DRV_3VL_OVERVIEW.pdl / @PL_DRV_3VL.pdl) basic displays.

(1) Group display (2) Message lock (MSG_LOCK) (3) Message acknowledgment (4) Message suppression (QMSG_SUP)

Figure 2-1 Section of the overview display

Information about the library 2.2 General information about OS typicals


Trend (@PCS7_trend.pdl) The "ReturnPath" and "StandardTrend" properties must be parameterized on the icon to incorporate a trend in a faceplate.

2: Online values with 5 min time axis • StandardTrend: > 2: Archive values with time axis of the value entered (in

min) .AVGCUR Structural element name starting with a full stop : Separators CO_GREEN Color for trend

• ReturnPath:

, Separators between two online values

Figure 2-2 Trend setting on the icon



2.2.2 Symbols The process display icons are based on the process symbols provided by the Faceplate Designer. The diagrams are schematic diagrams.

Template pictures @PCS7Typicals_SENTRON.pdl / @Template_SENTRON.pdl The icons can be found in the template diagrams @PCS7Typicals_SENTRON.pdl and @Template_SENTRON.pdl. When using the "Create/Update Block Icons" function, PCS 7 accesses the file @PCS7Typicals_SENTRON.pdl . When manually copying the icons into a process display, you must use the icons from the @Template_SENTRON.pdl file.

Different variants of block icons There may be several variants of block icons for one measuring point. These variants are distinguished by the "type" attribute: The value of this attribute describes the variant. For example, if you look at a variant of the block icon for a valve, you will find the value "@Valve/2". You use the part of the value displayed after the "/" to control which variant of the block icon is produced. You therefore have to enter this part in the object properties for the block instance. If you do not enter any parameters in the object properties for the block instance, the standard block icon is produced automatically: This is the block icon with the "/1" label for the "type" attribute, e.g. "@Valve/1". Only one version is however supplied per circuit breaker type with the library.

Connection to the measuring point There is one icon for the driver block that is linked to the associated measuring point using the "Connect picture block to tag structure" function. The icons contain the following visible information:

(1) Tag name (2) Maximum phase current (3) Group display (EventState) (4) Circuit breaker in manual (M) / automatic (A) (5) Circuit breaker state

Figure 2-3 Icons in Graphics Designer




Description of blocks 3

The library consists of the blocks described below: ● Diagnostic block (Page 17) DIA_WLVL ● Driver block (Page 22) DRV_3WL ● Driver block (Page 95) DRV_3VL

3.1 Diagnostics block DIA_WLVL FB1742 The DRV_3WL and DRV_3VL driver blocks have a shared diagnostics block DIA_WLVL.

Description of block: ● Calling OBs (Page 18) ● Called blocks (Page 18) ● Function (Page 18) ● Message behavior (Page 18) ● Error behavior (Page 19) ● I/O access error (Page 19) ● Module fault (Page 19) ● Read diagnostics data of 3WL / 3VL (Page 19) ● Start-up characteristics (Page 20) ● Block parameters (Page 20)

See also Driver module DRV_3WL (Page 22) Driver module DRV_3VL (Page 95)

Description of blocks 3.1 Diagnostics block DIA_WLVL


3.1.1 Calling OBs The block must be installed in the processing sequence in the following OBs (occurs automatically in the CFC): OB1 Cyclic program OB82 Diagnostic interrupt OB83 Insert/remove module interrupt OB85 Program error OB86 Rack failure OB100 Warm restart

Installation is performed automatically by means of the function "Generate Module Driver"

3.1.2 Called blocks The block calls the following blocks: SFC6 RD_SINFO SFC51 RDSYSST

3.1.3 Function The DIA_WLVL block is responsible for diagnosis of the 3WL / 3VL device. If a 3WL / 3VL is directly connected to the DP master system, the block evaluates the acyclic events that are relevant for 3WL / 3VL (start-up, DP station failure, module fault), generates quality code and diagnostic information for the MOD_PAX0 block and provides the driver block with status information via parameter output OMODE. In the case of operation following a Y link DPV1, diagnostic information cannot be supplied to the driver block. The block evaluates start-up, DP station failure and module faults and provides the driver block with this information via parameter output OMODE. This block is not used in the case of connection following Y link DPV0.

3.1.4 Message behavior The block has no message behavior. The messages for DP station failure and module fault are generated by the MOD_PAX0 block (in the case of direct connection to the DP master system) or PADP_L00 (in the case of connection following the Y link DPV0) or OB_DIAG1 (in the case of connection following the Y link DPV1).



3.1.5 Error behavior Failure of the DP master or DP slave has already been determined by the previous OB_DIAG1 block and evaluated by the RACKF, SUBN1ERR and SUBN2ERR inputs. In the event of an error, the output OMODE features the identifier for "higher-ranking error" (OMODE = 16#40xxxxxx).

3.1.6 I/O access error From the viewpoint of the I/O configuration, 3WL / 3VL is a "compact" DP slave, i.e. it always has a fixed I/O configuration. It can therefore be assumed that if an I/O access error occurs, the entire DP slave must have failed (which is reported shortly afterwards). I/O access errors are not evaluated any further, for this reason.

3.1.7 Module fault Following a restart and when ACC_ID = TRUE, the module addressed with LADDR is checked. SZL ID xC91 is read for this purpose. If the module addressed with LADDR does not exist, the output QMODF is set and the identifier for "higher-ranking error" is entered for the OMODE output (OMODE=16#40xxxxxx).

3.1.8 Read diagnostics data of 3WL / 3VL If the 3WL / 3VL outputs a diagnostics alarm, system function RDSYSST (SFC51) will activate reading of the device-specific diagnostics data. The device-specific diagnostics data is also read out using the system function RDSYSST (SFC51) following a CPU restart and rack start-up. Since 3WL / 3VL following a Y link switches over to DPV0 mode, the device-specific diagnostics data cannot be read. The read information is transferred to the MOD_PAX0 block and the driver block where it is evaluated. It is also read if a request is output by the driver block at the "DIAG_REQ" input. This occurs if: ● MAINT_MC ! = 0 ● R_MAINT = 1 ● Cyclically at DIAREQ_T ! = 0.0 min The diagnostics data can also be displayed on a Maintenance Station (MS).



Diagnostic events are assigned to maintenance status as follows: Diagnostic event Maintenance status QUALITY PA_DIAG Perform visual inspection on main contacts Maintenance

requirement is medium

16#68 16#0020_0000

Immediate maintenance of main contacts

Maintenance requirement is high

16#24 16#0100_0000

3.1.9 Start-up characteristics In OB100, the identifier for "Start up" is entered for output OMODE (OMODE=16#xx01xxxx).

3.1.10 Block parameters The as-supplied state of the block displayed in CFC is shown in the "I/O" column: I/O name bold = I/O is visible, normal = I/O is invisible.

I/O (parameter) Comment Data type Default Type OCM EN_DIAG 1 = Enable read diagnostic data BOOL FALSE I MODE Parameter OMODE of DRV_WLVL WORD 0 I LADDR Logical address of module INT 0 I DADDR Diagnostic address of module INT 0 I DPA_LINK Device connection:

0 = DP-MASTER, 1 = DP/PA-LINK

BOOL FALSE I

SUBN_TYP 1 = External DP interface BOOL FALSE I SUBN1_ID ID of Primary Subnet BYTE 16#FF I SUBN2_ID ID of Redundant Subnet BYTE 16#FF I RACK_NO Rack number BYTE 0 I RACKF 1 = Rack failure BOOL FALSE I SUBN1ERR 1 = Slave 1 Failure BOOL FALSE I SUBN2ERR 1 = Slave 2 Failure BOOL FALSE I ACC_ID 1 = Accept new mode settings BOOL TRUE IO DIAG_REQ 1 = Read diagnostic information BOOL FALSE I QERR 1 = Error BOOL FALSE O QMODF 1 = Module Failure BOOL FALSE O QRACKF 1 = Rack failure BOOL FALSE O RACK1ERR 1 = DP slave system failure (primary) BOOL FALSE O RACK2ERR 1 = DP slave system failure (redundant) BOOL FALSE O QUALITY Quality code of process value BYTE 0 O OMODE Status MODE DWORD 0 O



I/O (parameter) Comment Data type Default Type OCM PA_DIAG Diagnostic information for maintenance DWORD 0 O QDIAG_INF Diagnostic information WORD 0 O

Structure of OMODE Byte Value Meaning Byte 3 16#80: Valid data

16#40: Invalid data Higher-level fault

Byte 2 16#01: Cold restart (OB100) Byte 1; 0 16#0000 Irrelevant

Structure of QDIAG_INF VALUE Meaning 0 Everything ok 1 Perform visual inspection on main contacts 2 Immediate maintenance of main contacts

Description of blocks 3.2 Driver module DRV_3WL


3.2 Driver module DRV_3WL FB1741

Description of block: ● Calling OBs (Page 22) ● Called blocks (Page 23) ● Function (Page 23) ● Message behavior (Page 26) ● Assignment of the cyclic process image (Page 27) ● Addressing and module driver (Page 28) ● Processing the diagnostics data of the 3WL device (Page 28) ● Start-up characteristics (Page 29) ● Block parameters (Page 29) ● Description of symbols and faceplates (Page 60)

See also Diagnostics block DIA_WLVL (Page 17) Driver module DRV_3VL (Page 95)

3.2.1 Calling OBs The OB watchdog interrupt in which the block is installed (e.g. OB32). Also in OB100 (performed automatically in CFC, see start-up characteristics).



3.2.2 Called blocks The block calls the following blocks: SFB35 ALARM_8P SFB52 RDREC SFB53 WRREC SFC1 READ_CLK SFC6 RD_SINFO SFC20 BLKMOV SFC21 FILL

3.2.3 Function The DRV_3WL block is used for measurement acquisition and control and it forms the interface to the OS.

Automatic / manual mode switch over Automatic and manual mode are available for operating the driver block. When in manual mode, the user can control the circuit breaker position (ON / OFF) of the faceplate in WinCC. When in automatic mode, the corresponding buttons are locked (cannot be operated) in the faceplate and the circuit breaker is controlled by input parameters which can be connected in the CFC (AUTO_ON / AUTO_OFF) and therefore by the AS program. The user can define the mode in which the block is to run in the faceplate or in a block parameter (AUT_L). The setting at the LIOP_SEL input determines which of the parameters is currently active.

NOTICE If an error occurs (monitoring error, Local turn off, Tripped) the block changes to Forced manual. If the pending error state is acknowledged with one of the RESET buttons, the block goes into the specified mode again. If Automatic mode is specified by the AS program (LIOP_SEL = 1, AUT_L = 1) the commands present at AUTO_ON or AUTO_OFF are always output. Under certain circumstances this means that resetting error states may cause a switching operation of the circuit breaker. If this is not desired the user must configure the AS program accordingly.



Switching the circuit breaker on/off The user can use the driver block to switch the circuit breaker. It is important to note here that the ON state means "main contacts closed" and the OFF state means "main contacts open". The circuit breaker cannot be switched on or off in certain states: It must not be switched on when: • there is a monitoring error (QMON_ERR = 1) • the block is in maintenance mode (MAINT = 1) • write protection applies (QWR_PROT = 1) • the circuit breaker is already on (QON = 1) • the circuit breaker has tripped (QTRIP = 1) • the circuit breaker has been switched off locally (QLOC_OFF = 1) • the circuit breaker is not ready for an On command (RDY_ON = 0)

It must not be switched off when: • there is a monitoring error (QMON_ERR = 1) • the block is in maintenance mode (MAINT = 1) • write protection applies (QWR_PROT = 1) • the circuit breaker is already off (QOFF = 1) • the circuit breaker has tripped (QTRIP = 1) • the circuit breaker has been switched off locally (QLOC_OFF = 1)

Resetting Tripped and Local turn off states If the block is in one of the two states, it has to be reset before an On command can be output again. The faceplate features a corresponding button for the user for this RESET.

CAUTION Before the circuit breaker is switched back on, the reason for tripping/switching off must be established and possible error causes must be rectified.

NOTICE If such a state is reset the response of the mode must be observed as it may cause a switching operation of the circuit breaker under certain circumstances. See Automatic / Manual mode switchover



Feedback monitoring When monitoring is activated (MONITOR = On), switching commands (ON / OFF) and the resetting of trips are time monitored. If the expected state is not reached after an operation and within the monitoring time (TIME_MON), the block outputs a message and goes into a resetting state (QMON_ERR). The faceplate features an appropriate RESET button for resetting this state again.

NOTICE If the monitoring error is reset the response of the mode must be observed as it may cause a switching operation of the circuit breaker under certain circumstances. See Automatic / Manual mode switchover

Measured value acquisition The block reads measured values from the cyclic process image. When operating 3WL on the DP master system directly, the block also reads data record 94 with the system function block RDREC (SFB52). The data record is read in a defined cycle. The interval at which the data record can be read can be set in seconds using the input parameter CYCLE_T. The default setting is 60 seconds. A cycle of 0 seconds or less means that this data record is not read.

Time synchronization Data record 68 writes the current time in cycles in order to transfer the current time to the circuit breaker. This cycle can be set in seconds using the TIME_SYNC_T parameter.

Diagnostics and maintenance In order to display the current state of the circuit breaker, modules present, statistics information and diagnostic messages, the module reads the status word from the process image and data records 91 and 92. The process image is called in cycles. The user can request the data records in the faceplate via operations. The diagnostic messages are updated in cycles when messages are present.

WARNING During maintenance work on the circuit breaker, maintenance mode must be activated! At the same time, the circuit breaker must be locked locally to prevent it being switched back on. Maintenance specifications apply to the circuit breakers (in accordance with EN 50 110-1, DIN VDE 0105-100 and BGV A2).



Protect. parameter and extended protect. parameter This data, which comes from data records 128 and 129, is updated for the display in the faceplate if requested by the operator. These parameters cannot be written.

Setpoints These parameters can be read and written from the faceplate.

3.2.4 Message behavior DRV_3WL issues the following messages:

Message block Message

number Message text Message class

1 Overload tripping (L) AH 2 Instantaneous short-circuit (I) AH 3 Short-time-delay short-circuit (S) AH 4 Ground fault (G) AH 5 Trip as a result of extended protection function AH 6 Overload in neutral conductor AH 7 Overload warning present WH

MSG_EVID1

8 An activated setpoint value has been exceeded WH 1 An alarm signal is currently present WH 2 Error time synchronization WH 3 Local turn off of circuit breaker / tripped AH 4 Load shedding warning WH 5 Perform visual inspection on main contacts WH 6 Immediate maintenance of main contacts AH 7 Monitoring error AS Control System

Fault

MSG_EVID2

8 Forbidden switching command for auto mode - switching command ignored

AS Control System Fault



Auxiliary values EV_ID Auxiliary value Block parameters

1 AUX_PR01 2 AUX_PR02 3 AUX_PR03 4 AUX_PR04 5 AUX_PR05 6 AUX_PR06 7 AUX_PR07 8 AUX_PR08 9 AUX_PR09

MSG_EVID1 -

MSG_EVID2

10 AUX_PR10

3.2.5 Assignment of the cyclic process image Only basic type 3 is supported in the default setting.

Name Inputs Outputs 0 / 1 Control bytes 2 0 / 1 Binary status information 2 2 / 3 Current in phase 1 2 4 / 5 Current in phase 2 2 6 / 7 Current in phase 3 2 8 / 9 Max. current in phase under highest load 2 10 / 11 Current in neutral conductor 2 12 / 13 Phase-to-phase voltage L12 2 14 / 15 Phase-to-phase voltage L23 2 16 / 17 Phase-to-phase voltage L31 2 18 / 19 Neutral-point star voltage L1N 2 20 / 21 Neutral-point star voltage L2N 2 22 / 23 Neutral-point star voltage L3N 2 24 / 25 Mean value of power factors of 3 phases 2 26 / 27 Total active energy of 3 phases 2 28 / 29 Total apparent power of 3 phases 2 30 EB of current phase 1 1 31 EB of current phase 2 1 32 EB of current phase 3 1 33 EB of max. current in phase under highest load 1 34 EB of current in neutral conductor 1 35 EB of phase-to-phase voltage L12 1



Name Inputs Outputs 36 EB of phase-to-phase voltage L23 1 37 EB of phase-to-phase voltage L31 1 38 EB of neutral-point star voltage L1N 1 39 EB of neutral-point star voltage L2N 1 40 EB of neutral-point star voltage L3N 1 41 EB of mean value of the three power factors 1 42 EB of total active energy 1 43 EB of total apparent power 1 Number of bytes 44 2

3.2.6 Addressing and module driver The I/O addresses of 3WL must lie completely within the process image of the CPU. In the CFC chart, the LADDR input is connected to the base address of the 3WL device. Procedure: Select input parameter → right mouse button → Interconnection to address... → Entere.g. EW512 If 3WL is directly connected to the DP master system, the module driver connects block outputs OMODE, QRACKF and QMODF to inputs MODE00, RACKF and MODF of the block MOD_PAX0 and the module driver connects input DIAG_INF to output QDIAG_INF of diagnostics block DIA_WLVL. In the case of operation following a Y-Link DPV1, the module driver connects block inputs MODE, RACKF and DIAG_INF to outputs OMODE, QRACKF and QDIAG_INF of diagnostics block DIA_WLVL. In the case of operation following a Y-Link DPV0, the module driver connects block inputs MODE and RACKF to outputs OMODE00 and QRACKF of block PADP_L00. The block input BASADR is parameterized with the logical base address of the 3WL device by the module driver. The block input BASADR_OUT is parameterized with the start address of the outputs of the 3WL device by the module driver. The input DPA_LINK is parameterized with the connection mode of the 3WL device by the module driver. ● DPA_LINK = 0 -> Directly connected to the DP master ● DPA_LINK = 1 -> Connected following a DP/PA link

3.2.7 Processing the diagnostics data of the 3WL device If 3WL is directly connected to the DP master system, the block processes the diagnostic information that is supplied to it from the DIA_WLVL diagnostics block via the input DIAG_INF. The user has the possibility of setting the cycle for cyclic reading of the diagnostics data record at the "DIAREQ_T" input. At DIAREQ_T = 0.0 minutes no cyclic reading takes place.



3.2.8 Start-up characteristics On starting, messages are deactivated (OB100).


I/O (parameter) Comment Data type Default Type OCM MODE Parameter OMODE of DIA_WLVL DWORD 0 I RACKF 1 = Rack failure BOOL FALSE I LADDR Base address of 3WL module WORD 0 I BASADR Base address of 3WL module INT 0 I BASADR_OUT Base address of 3WL module for outputs INT 0 I DPA_LINK Device connection: 0 = DP-MASTER,

1 = DP/PA-LINK BOOL FALSE I x

MSG_LOCK 1 = Messages locked BOOL FALSE I x RUNUPCYC Lag: Number of run up cycles INT 0 I SAMPLE_T Sample time [s] REAL 0.0 I CYCLE_T Cycle time of cyclic reading of DRs [s] REAL 60.0 I TIME_SYNC_T Cycle time of time synchronization [min] REAL 10.0 I DIAREQ_T Cycle time of reading diagnostic

information [min] BOOL FALSE O

DR94_K 1 = kWh inputs for real and reactive energy of DR 94 are used

BOOL FALSE I x

MONITOR 1 = Monitoring activated BOOL TRUE I TIME_MON Monitoring time [s] REAL 10.0 I DIAG_INF Diagnostic info for driver WORD 0 I ALT_SYM 1 = Alternative symbols BOOL FALSE I MANOP_EN 1 = Operator may input MANUAL BOOL TRUE I AUTOP_EN 1 = Operator may input AUTO BOOL TRUE I LIOP_SEL 1 = Linking, 0 = Operator active BOOL FALSE I AUT_L Linkable input for MANUAL/AUTO mode BOOL FALSE I AUTO_ON AUTO mode: Switch off (open the main

contacts) BOOL FALSE I

AUTO_OFF AUTO mode: Switch on (close the main contacts)

BOOL FALSE I

MSG_EVID1 Message ID message block 1 DWORD 0 I MSG_EVID2 Message ID message block 2 DWORD 0 I SUP_OVLD_WRN 1 = Active message suppression BOOL FALSE I x SUP_SP_EXCEED 1 = Active message suppression BOOL FALSE I x SUP_WRN 1 = Active message suppression BOOL FALSE I x SUP_LD_SHED 1 = Active message suppression BOOL FALSE I x



I/O (parameter) Comment Data type Default Type OCM RP_NORM_I DR 130: Real power in normal direction REAL 0.0 I x RP_NORM_I_QC Quality code of RP_NORM_I BYTE 0 I RP_NORM_I_OFF DR 130: Real power in normal direction

OFF BOOL FALSE I x

RP_NORM_I_NA DR 130: Real power in normal direction not available

BOOL FALSE I x

RP_REV_I DR 130: Real power in reverse direction REAL 0.0 I x RP_REV_I_QC Quality code of RP_REV_I BYTE 0 I RP_REV_I_OFF DR 130: Real power in reverse direction

OFF BOOL FALSE I x

RP_REV_I_NA DR 130: Real power in reverse direction not available

BOOL FALSE I x

PF_CAP_I DR 130: Power factor capacitive REAL 0.0 I x PF_CAP_I_QC Quality code of PF_CAP_I BYTE 0 I PF_CAP_I_OFF DR 130: Power factor capacitive OFF BOOL FALSE I x PF_CAP_I_NA DR 130: Power factor capacitive not

available BOOL FALSE I x

PF_IND_I DR 130: Power factor inductive REAL 0.0 I x PF_IND_I_QC Quality code of PF_IND_I BYTE 0 I PF_IND_I_OFF DR 130: Power factor inductive OFF BOOL FALSE I x PF_IND_I_NA DR 130: Power factor inductive not


T_RP_NORM_I DR 130: Delay time for real power in normal direction

REAL 0.0 I x

T_RP_NORM_I_QC Quality code of T_RP_NORM_I BYTE 0 I T_RP_NORM_I_OFF DR 130: Delay time for real power in

normal direction OFF BOOL FALSE I x

T_RP_NORM_I_NA DR 130: Delay time for real power in normal direction not available

BOOL FALSE I x

T_RP_REV_I DR 130: Delay time for real power in reverse direction

REAL 0.0 I x

T_RP_REV_I_QC Quality code of T_RP_REV_I BYTE 0 I T_RP_REV_I_OFF DR 130: Delay time for real power in

reverse direction OFF BOOL FALSE I x

T_RP_REV_I_NA DR 130: Delay time for real power in reverse direction not available

BOOL FALSE I x

T_PF_CAP_I DR 130: Delay time for power factor capacitive

REAL 0.0 I x

T_PF_CAP_I_QC Quality code of T_PF_CAP_I BYTE 0 I T_PF_CAP_I_OFF DR 130: Delay time for power factor

capacitive OFF BOOL FALSE I x

T_PF_CAP_I_NA DR 130: Delay time for power factor capacitive not available

BOOL FALSE I x

T_PF_IND_I DR 130: Delay time for power factor inductive

REAL 0.0 I x

T_PF_IND_I_QC Quality code of T_PF_IND_I BYTE 0 I



I/O (parameter) Comment Data type Default Type OCM T_PF_IND_I_OFF DR 130: Delay time for power factor

inductive OFF BOOL FALSE I x

T_PF_IND_I_NA DR 130: Delay time for power factor inductive not available

BOOL FALSE I x

OVER_FRQ_I DR 130: Over frequency REAL 0.0 I x OVER_FRQ_I_QC Quality code of OVER_FRQ_I BYTE 0 I OVER_FRQ_I_OFF DR 130: Over frequency OFF BOOL FALSE I x OVER_FRQ_I_NA DR 130: Over frequency not available BOOL FALSE I x T_OVER_FRQ_I DR 130: Delay time for over frequency REAL 0.0 I x T_OVER_FRQ_I_QC Quality code of T_OVER_FRQ_I BYTE 0 I T_OVER_FRQ_I_OFF DR 130: Delay time for over frequency

OFF BOOL FALSE I x

T_OVER_FRQ_I_NA DR 130: Delay time for over frequency not available

BOOL FALSE I x

UNDER_FRQ_I DR 130: Under frequency REAL 0.0 I x UNDER_FRQ_I_QC Quality code of UNDER_FRQ_I BYTE 0 I UNDER_FRQ_I_OFF DR 130: Under frequency OFF BOOL FALSE I x UNDER_FRQ_I_NA DR 130: Under frequency not available BOOL FALSE I x T_UNDER_FRQ_I DR 130: Delay time for under frequency REAL 0.0 I x T_UNDER_FRQ_I_QC Quality code of T_UNDER_FRQ_I BYTE 0 I T_UNDER_FRQ_I_OFF DR 130: Delay time for under frequency

OFF BOOL FALSE I x

T_UNDER_FRQ_I_NA DR 130: Delay time for under frequency not available

BOOL FALSE I x

CUR_THD_I DR 130: THD current REAL 0.0 I x CUR_THD_I_QC Quality code of CUR_THD_I BYTE 0 I CUR_THD_I_OFF DR 130: THD current OFF BOOL FALSE I x CUR_THD_I_NA DR 130: THD current not available BOOL FALSE I x T_CUR_THD_I DR 130: Delay time for THD current REAL 0.0 I x T_CUR_THD_I_QC Quality code of T_CUR_THD_I BYTE 0 I T_CUR_THD_I_OFF DR 130: Delay time for THD current OFF BOOL FALSE I x T_CUR_THD_I_NA DR 130: Delay time for THD current not


VOLT_THD_I DR 130: THD voltage REAL 0.0 I x VOLT_THD_I_QC Quality code of VOLT_THD_I BYTE 0 I VOLT_THD_I_OFF DR 130: THD voltage OFF BOOL FALSE I x VOLT_THD_I_NA DR 130: THD voltage not available BOOL FALSE I x T_VOLT_THD_I DR 130: Delay time for THD voltage REAL 0.0 I x T_VOLT_THD_I_QC Quality code of T_VOLT_THD_I BYTE 0 I T_VOLT_THD_I_OFF DR 130: Delay time for THD voltage OFF BOOL FALSE I x T_VOLT_THD_I_NA DR 130: Delay time for THD voltage not


CREST_F_I DR 130: Crest factor REAL 0.0 I x CREST_F_I_QC Quality code of CREST_F_I BYTE 0 I



I/O (parameter) Comment Data type Default Type OCM CREST_F_I_OFF DR 130: Crest factor OFF BOOL FALSE I x CREST_F_I_NA DR 130: Crest factor not available BOOL FALSE I x FORM_F_I DR 130: Form factor REAL 0.0 I x FORM_F_I_QC Quality code of FORM_F_I BYTE 0 I FORM_F_I_OFF DR 130: Form factor OFF BOOL FALSE I x FORM_F_I_NA DR 130: Form factor not available BOOL FALSE I x T_CREST_F_I DR 130: Delay time for crest factor REAL 0.0 I x T_CREST_F_I_QC Quality code of T_CREST_F_I BYTE 0 I T_CREST_F_I_OFF DR 130: Delay time for crest factor OFF BOOL FALSE I x T_CREST_F_I_NA DR 130: Delay time for crest factor not


T_FORM_F_I DR 130: Delay time for form factor REAL 0.0 I x T_FORM_F_I_QC Quality code of T_FORM_F_I BYTE 0 I T_FORM_F_I_OFF DR 130: Delay time for form factor OFF BOOL FALSE I x T_FORM_F_I_NA DR 130: Delay time for form factor not


RP_DEM_I DR 130: Demand real power REAL 0.0 I x RP_DEM_I_QC Quality code of PR_DEM_I BYTE 0 I RP_DEM_I_OFF DR 130: Demand real power OFF BOOL FALSE I x RP_DEM_I_NA DR 130: Demand real power not available BOOL FALSE I x AP_DEM_I DR 130: Demand apparent power REAL 0.0 I x AP_DEM_I_QC Quality code of AP_DEM_I BYTE 0 I AP_DEM_I_OFF DR 130: Demand apparent power OFF BOOL FALSE I x AP_DEM_I_NA DR 130: Demand apparent power not


T_RP_DEM_I DR 130: Delay time demand of the real power

REAL 0.0 I x

T_RP_DEM_I_QC Quality code of T_RP_DEM_I BYTE 0 I T_RP_DEM_I_OFF DR 130: Delay time demand of the real

power OFF BOOL FALSE I x

T_RP_DEM_I_NA DR 130: Delay time demand of the real power not available

BOOL FALSE I x

T_AP_DEM_I DR 130: Delay time demand of the apparent power

REAL 0.0 I x

T_AP_DEM_I_QC Quality code of T_AP_DEM_I BYTE 0 I T_AP_DEM_I_OFF DR 130: Delay time demand of the

apparent power OFF BOOL FALSE I x

T_AP_DEM_I_NA DR 130: Delay time demand of the apparent power not available

BOOL FALSE I x

RAP_DEM_I DR 130: Demand reactive power REAL 0.0 I x RAP_DEM_I_QC Quality code of RAP_DEM_I BYTE 0 I RAP_DEM_I_OFF DR 130: Demand reactive power OFF BOOL FALSE I x RAP_DEM_I_NA DR 130: Demand reactive power not

Available BOOL FALSE I x



I/O (parameter) Comment Data type Default Type OCM RAP_NORM_I DR 130: Reactive power in normal

direction REAL 0.0 I x

RAP_NORM_I_QC Quality code of RAP_NORM_I BYTE 0 I RAP_NORM_I_OFF DR 130: Reactive power in normal

direction OFF BOOL FALSE I x

RAP_NORM_I_NA DR 130: Reactive power in normal direction not available

BOOL FALSE I x

T_RAP_DEM_I DR 130: Delay time demand of the reactive power

REAL 0.0 I x

T_RAP_DEM_I_QC Quality code of T_RAP_DEM_I BYTE 0 I T_RAP_DEM_I_OFF DR 130: Delay time demand of the

reactive power OFF BOOL FALSE I x

T_RAP_DEM_I_NA DR 130: Delay time demand of the reactive power not available

BOOL FALSE I x

T_RAP_NORM_I DR 130: Delay time for reactive power in normal direction

REAL 0.0 I x

T_RAP_NORM_I_QC Quality code of T_RAP_NORM_I BYTE 0 I T_RAP_NORM_I_OFF DR 130: Delay time for reactive power in

normal direction OFF BOOL FALSE I x

T_RAP_NORM_I_NA DR 130: Delay time for reactive power in normal direction not available

BOOL FALSE I x

RAP_REV_I DR 130: Reactive power in reverse direction

REAL 0.0 I x

RAP_REV_I_QC Quality code of RAP_REV_I BYTE 0 I RAP_REV_I_OFF DR 130: Reactive power in reverse

direction OFF BOOL FALSE I x

RAP_REV_I_NA DR 130: Reactive power in reverse direction not available

BOOL FALSE I x

AP_I DR 130: Apparent power REAL 0.0 I x AP_I_QC Quality code of AP_I BYTE 0 I AP_I_OFF DR 130: Apparent power OFF BOOL FALSE I x AP_I_NA DR 130: Apparent power not available BOOL FALSE I x T_RAP_REV_I DR 130: Delay time for reactive power in

reverse direction REAL 0.0 I x

T_RAP_REV_I_QC Quality code of T_RAP_REV_I BYTE 0 I T_RAP_REV_I_OFF DR 130: Delay time for reactive power in

reverse direction OFF BOOL FALSE I x

T_RAP_REV_I_NA DR 130: Delay time for reactive power in reverse direction not available

BOOL FALSE I x

T_AP_I DR 130: Delay time for apparent power REAL 0.0 I x T_AP_I_QC Quality code of T_AP_I BYTE 0 I T_AP_I_OFF DR 130: Delay time for apparent power

OFF BOOL FALSE I x

T_AP_I_NA DR 130: Delay time for apparent power not available

BOOL FALSE I x

CUR_OVER_I DR 130: Over current REAL 0.0 I x



I/O (parameter) Comment Data type Default Type OCM CUR_OVER_I_QC Quality code of CUR_OVER_I BYTE 0 I CUR_OVER_I_OFF DR 130: Over current OFF BOOL FALSE I x CUR_OVER_I_NA DR 130: Over current not available BOOL FALSE I x CUR_GRD_I DR 130: Earth fault current REAL 0.0 I x CUR_GRD_I_QC Quality code of CUR_GRD_I BYTE 0 I CUR_GRD_I_OFF DR 130: Earth fault current OFF BOOL FALSE I x CUR_GRD_I_NA DR 130: Earth fault current not available BOOL FALSE I x CUR_N_I DR 130: Over current N-phase REAL 0.0 I x CUR_N_I_QC Quality code of CUR_N_I BYTE 0 I CUR_N_I_OFF DR 130: Over current N-phase OFF BOOL FALSE I x CUR_N_I_NA DR 130: Over current N-phase not


CUR_DEM_I DR 130: Demand of the current REAL 0.0 I x CUR_DEM_I_QC Quality code of CUR_DEM_I BYTE 0 I CUR_DEM_I_OFF DR 130: Demand of the current OFF BOOL FALSE I x CUR_DEM_I_NA DR 130: Demand of the current not


T_CUR_OVER_I DR 130: Delay time for over current REAL 0.0 I x T_CUR_OVER_I_QC Quality code of T_CUR_OVER_I BYTE 0 I T_CUR_OVER_I_OFF DR 130: Delay time for over current OFF BOOL FALSE I x T_CUR_OVER_I_NA DR 130: Delay time for over current not


T_CUR_GRD_I DR 130: Delay time for over current ground

REAL 0.0 I x

T_CUR_GRD_I_QC Quality code of T_CUR_GRD_I BYTE 0 I T_CUR_GRD_I_OFF DR 130: Delay time for over current

ground OFF BOOL FALSE I x

T_CUR_GRD_I_NA DR 130: Delay time for over current ground not available

BOOL FALSE I x

T_CUR_N_I DR 130: Delay time for over current N-phase

REAL 0.0 I x

T_CUR_N_I_QC Quality code of T_CUR_N_I BYTE 0 I T_CUR_N_I_OFF DR 130: Delay time for over current N-

phase OFF BOOL FALSE I x

T_CUR_N_I_NA DR 130: Delay time for over current N-phase not available

BOOL FALSE I x

UNBAL_CUR_I DR 130: Phase unbalance current REAL 0.0 I x UNBAL_CUR_I_QC Quality code of UNBAL_CUR_I BYTE 0 I UNBAL_CUR_I_OFF DR 130: Phase unbalance current OFF BOOL FALSE I x UNBAL_CUR_I_NA DR 130: Phase unbalance current not


T_UNBAL_CUR_I DR 130: Delay time for phase unbalance current

REAL 0.0 I x

T_UNBAL_CUR_I_QC Quality code of T_UNBAL_CUR_I BYTE 0 I



I/O (parameter) Comment Data type Default Type OCM T_UNBAL_CUR_I_OFF DR 130: Delay time for phase unbalance

current OFF BOOL FALSE I x

T_UNBAL_CUR_I_NA DR 130: Delay time for phase unbalance current not available

BOOL FALSE I x

T_CUR_DEM_I DR 130: Delay time for demand of the current

REAL 0.0 I x

T_CUR_DEM_I_QC Quality code of T_CUR_DEM_I BYTE 0 I T_CUR_DEM_I_OFF DR 130: Delay time for demand of the


T_CUR_DEM_I_NA DR 130: Delay time for demand of the current not available

BOOL FALSE I x

UNDER_VOLT_I DR 130: Under voltage REAL 0.0 I x UNDER_VOLT_I_QC Quality code of UNDER_VOLT_I BYTE 0 I UNDER_VOLT_I_OFF DR 130: Under voltage OFF BOOL FALSE I x UNDER_VOLT_I_NA DR 130: Under voltage not available BOOL FALSE I x T_UNDER_VOLT_I DR 130: Delay time for under voltage REAL 0.0 I x T_UNDER_VOLT_I_QC Quality code of T_UNDER_VOLT_I BYTE 0 I T_UNDER_VOLT_I_OFF DR 130: Delay time for under voltage OFF BOOL FALSE I x T_UNDER_VOLT_I_NA DR 130: Delay time for under voltage not


UNBAL_VOLT_I DR 130: Phase unbalance voltage REAL 0.0 I x UNBAL_VOLT_I_QC Quality code of UNBAL_VOLT_I BYTE 0 I UNBAL_VOLT_I_OFF DR 130: Phase unbalance voltage OFF BOOL FALSE I x UNBAL_VOLT_I_NA DR 130: Phase unbalance voltage not


T_UNBAL_VOLT_I DR 130: Delay time for phase unbalance voltage

REAL 0.0 I x

T_UNBAL_VOLT_I_QC Quality code of T_UNBAL_VOLT_I BYTE 0 I T_UNBAL_VOLT_I_OFF DR 130: Delay time for phase unbalance

voltage OFF BOOL FALSE I x

T_UNBAL_VOLT_I_NA DR 130: Delay time for phase unbalance voltage not available

BOOL FALSE I x

OVER_VOLT_I DR 130: Over voltage REAL 0.0 I x OVER_VOLT_I_QC Quality code of OVER_VOLT_I BYTE 0 I OVER_VOLT_I_OFF DR 130: Over voltage OFF BOOL FALSE I x OVER_VOLT_I_NA DR 130: Over voltage not available BOOL FALSE I x T_OVER_VOLT_I DR 130: Delay time for over voltage REAL 0.0 I x T_OVER_VOLT_I_QC Quality code of T_OVER_VOLT_I BYTE 0 I T_OVER_VOLT_I_OFF DR 130: Delay time for over voltage OFF BOOL FALSE I x T_OVER_VOLT_I_NA DR 130: Delay time for over voltage not


RD_DR69 Read data record 69 (status of the modules)

BOOL FALSE IO x

RD_DR91 Read data record 91 (statistic and maintenance)

BOOL FALSE IO x



I/O (parameter) Comment Data type Default Type OCM RD_DR92 Read data record 92 (diagnostics) BOOL FALSE IO x RD_DR128 Read data record 128 (metering and ext.

protective function) BOOL FALSE IO x

RD_DR129 Read data record 129 (protective function) BOOL FALSE IO x RD_DR130 Read data record 130 (setpoints) BOOL FALSE IO x WR_DR130 Write data record 130 (setpoints) BOOL FALSE IO x AUT_ON_OP Operator input: Mode 1 = AUTO,

0 = MANUAL BOOL FALSE IO x

AUX_PR01 Auxiliary value 01 ANY IO AUX_PR02 Auxiliary value 02 ANY IO AUX_PR03 Auxiliary value 03 ANY IO AUX_PR04 Auxiliary value 04 ANY IO AUX_PR05 Auxiliary value 05 ANY IO AUX_PR06 Auxiliary value 06 ANY IO AUX_PR07 Auxiliary value 07 ANY IO AUX_PR08 Auxiliary value 08 ANY IO AUX_PR09 Auxiliary value 09 ANY IO AUX_PR10 Auxiliary value 10 ANY IO MAN_OFF Operator input: Switch off (open the main

contacts) BOOL FALSE IO x

MAN_ON Operator input: Switch on (close the main contacts)

BOOL FALSE IO x

RESET Operator input trip reset BOOL FALSE IO x RES_MONERR Operator input reset monitoring error BOOL FALSE IO x ACK_TRIP A current trip is acknowledged and reset BOOL FALSE IO x DEL_TRIP Delete trip and event log BOOL FALSE IO x R_VAL_MEM Reset all min./max. value memories

(except temperatures) BOOL FALSE IO x

R_TEMP Reset min./max. temperatures BOOL FALSE IO x R_MAINT Reset all resettable maintenance

information and counters BOOL FALSE IO x

MAINT 1 = Maintenance mode BOOL FALSE IO x QERR 1 = Error BOOL FALSE O x QMON_ERR 1 = Monitoring error BOOL FALSE O x QBAD 1 = Bad process value BOOL FALSE O x QMSG_SUP 1 = Message suppression active BOOL FALSE O x QMSG_ERR 1 = Message error BOOL FALSE O QMANOP 1 = Operator enabled for MANUAL BOOL FALSE O x QDIAG_REQ 1 = Read diagnostic information BOOL FALSE O QAUTOP 1 = Operator enabled for AUTO BOOL FALSE O x QOFF_OP 1 = Operator enabled for "OFF" BOOL FALSE O x QON_OP 1 = Operator enabled for "ON" BOOL FALSE O x QRES_OP 1 = Operator enabled for "RESET" BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM QDR_OP 1 = Operator enabled for data record

actions BOOL FALSE O x

QOP_ERR 1 = Operator error BOOL FALSE O QMAN_AUT 1 = AUTO, 0 = MANUAL mode BOOL FALSE O x MSG_STAT1 Message block 1: STATUS output WORD 0 O MSG_STAT2 Message block 2: STATUS output WORD 0 O MSG_ACK1 Message block 1: ACK_STATE output WORD 0 O MSG_ACK2 Message block 2: ACK_STATE output WORD 0 O QERR_WR 1 = An error occurred during writing DRs BOOL FALSE O QERR_RD 1 = An error occurred during reading DRs BOOL FALSE O QWR_STAT Status of DR writing WORD 0 O QRD_STAT Status of DR reading WORD 0 O STATUS Binary status information WORD 0 O STATUS_QC Quality code of STATUS BYTE 0 O CUR_L1 Current in phase 1 REAL 0.0 O x CUR_L1_QC Quality code of CUR_L1 BYTE 0 O CUR_L2 Current in phase 2 REAL 0.0 O x CUR_L2_QC Quality code of CUR_L2 BYTE 0 O CUR_L3 Current in phase 3 REAL 0.0 O x CUR_L3_QC Quality code of CUR_L3 BYTE 0 O CUR_MAX Current max. L1, L2, L3 REAL 0.0 O x CUR_MAX_QC Quality code of CUR_MAX BYTE 0 O CUR_N Current in phase N (trip unit) REAL 0.0 O x CUR_N_QC Quality code of CUR_N BYTE 0 O U_L1_L2 Voltage line-to-line L1-L2 (A-B) REAL 0.0 O x U_L1_L2_QC Quality code of U_L1_L2 BYTE 0 O U_L2_L3 Voltage line-to-line L2-L3 (B-C) REAL 0.0 O x U_L2_L3_QC Quality code of U_L2_L3 BYTE 0 O U_L3_L1 Voltage line-to-line L3-L1 (C-A) REAL 0.0 O x U_L3_L1_QC Quality code of U_L3_L1 BYTE 0 O U_L1_N Voltage star point L1-N (A-N) REAL 0.0 O x U_L1_N_QC Quality code of U_L1_N BYTE 0 O U_L2_N Voltage star point L2-N (B-N) REAL 0.0 O x U_L2_N_QC Quality code of U_L2_N BYTE 0 O U_L3_N Voltage star point L3-N (C-N) REAL 0.0 O x U_L3_N_QC Quality code of U_L3_N BYTE 0 O PF_AVG Power factor average REAL 0.0 O x PF_AVG_QC Quality code of PF_AVG BYTE 0 O ACT_W Active energy in normal direction REAL 0.0 O x ACT_W_QC Quality code of ACT_W BYTE 0 O KVA_TOT Apparent power total REAL 0.0 O x KVA_TOT_QC Quality code of KVA_TOT BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM POS_CB Position of circuit breaker BYTE 0 O x QDISCON 1 = Disconnected BOOL FALSE O x QOP_POS 1 = Operating position BOOL FALSE O QTEST_POS 1 = Test position BOOL FALSE O QNO_CB 1 = Circuit breaker not present BOOL FALSE O x ST_CB Status of circuit breaker BYTE 0 O x QNOT_RDY 1 = Circuit breaker not ready BOOL FALSE O QOFF 1 = Main contacts disconnected BOOL FALSE O QON 1 = Main contacts closed BOOL FALSE O QTRIP 1 = Circuit breaker has tripped BOOL FALSE O QLOC_OFF 1 = Local turn off of circuit breaker BOOL FALSE O x QRDY_ON 1 = Ready to switch on BOOL FALSE O QUNV_REL 1 = Voltage applied to undervoltage

release BOOL FALSE O

QSPR_CHAR 1 = Storage spring is charged BOOL FALSE O QOVLD_WRN 1 = Overload warning present BOOL FALSE O QSP_EXCEED 1 = An activated setpoint value has been

exceeded BOOL FALSE O

QWRN 1 = A warning signal is currently present BOOL FALSE O QWR_PROT 1 = Write operations are prohibited BOOL FALSE O QFREE_COM15 1 = Status of the free user input on the

COM15 module BOOL FALSE O

LST_TRIP Reason for last trip BYTE 0 O QTR_OVLD 1 = Overload tripping (L) BOOL FALSE O QTR_ISC 1 = Instantaneous short-circuit (I) BOOL FALSE O QTR_STD_C 1 = Short-time-delay short-circuit (S) BOOL FALSE O QTR_GF 1 = Ground fault (G) BOOL FALSE O QTR_EXT_F 1 = Trip as a result of extended protection

function BOOL FALSE O

QTR_OVLD_N 1 = Overload in neutral conductor BOOL FALSE O QLD_SHED 1 = Load shedding warning BOOL FALSE O E_TIME_SYC 1 = Error time synchronization BOOL FALSE O STON_GFNA Short time on / Ground fault off BOOL FALSE O x STON_GFOFF_QC Quality code of STON_GFOFF BYTE 0 O STON_GFOFF_NA Short time on / Ground fault off not

available BOOL FALSE O x

STON_GFOFF_STOFF_GFON Short time off / Ground fault off BOOL FALSE O x STOFF_GFON_QC Quality code of STOFF_GFON BYTE 0 O STOFF_GFON_NA Short time off / Ground fault on not


N_ACT_LD DR 91: Number of switch actions under load

WORD 0 O x

N_ACT_LD_QC Quality code of N_ACT_LD BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM N_ACT_LD_NA DR 91: Number of switch actions under

load not available BOOL FALSE O x

N_ACT_TRP DR 91: Number of switch actions caused by a trip

WORD 0 O x

N_ACT_TRP_QC Quality code of N_ACT_TRP BYTE 0 O N_ACT_TRP_NA DR 91: Number of switch actions caused

by a trip not available BOOL FALSE O x

N_ACT_CC DR 91: Number of switch actions (complete cycle on/off)

WORD 0 O x

N_ACT_CC_QC Quality code of N_ACT_CC BYTE 0 O N_ACT_CC_NA DR 91: Number of switch actions

(complete cycle on/off) not available BOOL FALSE O x

OP_HOURS DR 91: Operating hours (breaker on and current > 0)

DWORD 0 O x

OP_HOURS_QC Quality code of OP_HOURS BYTE 0 O OP_HOURS_NA DR 91: Operating hours (breaker on and

current > 0) not available BOOL FALSE O x

LAST_CHG DR 91: Date of the last parameter change DATE_AND_TIME

DT#1990-01-01-0:0:0.0

O

LAST_CHG_QC Quality code of LAST_CHG BYTE 0 O LAST_CHG_NA DR 91: Date of the last parameter change

not available BOOL FALSE O

N_SC_TRP DR 91: Number of short circuit trips (SI) WORD 0 O x N_SC_TRP_QC Quality code of N_SC_TRP BYTE 0 O N_SC_TRP_NA DR 91: Number of short circuit trips (SI)

not available BOOL FALSE O x

N_OVL_TRP DR 91: Number of overload trips (L) WORD 0 O x N_OVL_TRP_QC Quality code of N_OVL_TRP BYTE 0 O N_OVL_TRP_OFF DR 91: Number of overload trips (L) OFF BOOL FALSE O x N_OVL_TRP_NA DR 91: Number of overload trips (L) not


N_EF_TRP DR 91: Number of earth fault trips (G) WORD 0 O x N_EF_TRP_QC Quality code of N_EF_TRP BYTE 0 O N_EF_TRP_NA DR 91: Number of earth fault trips (G) not


S_I2T_L1 DR 91: Sum of I2T-values L1 REAL 0.0 O x S_I2T_L1_QC Quality code of S_I2T_L1 BYTE 0 O S_I2T_L1_NA DR 91: Sum of I2T-values L1 not available BOOL FALSE O x S_I2T_L2 DR 91: Sum of I2T-values L2 REAL 0.0 O x S_I2T_L2_QC Quality code of S_I2T_L2 BYTE 0 O S_I2T_L2_NA DR 91: Sum of I2T-values L2 not available BOOL FALSE O x S_I2T_L3 DR 91: Sum of I2T-values L3 REAL 0.0 O x S_I2T_L3_QC Quality code of S_I2T_L3 BYTE 0 O S_I2T_L3_NA DR 91: Sum of I2T-values L3 not available BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM S_I2T_N DR 91: Sum of I2T-values N REAL 0.0 O x S_I2T_N_QC Quality code of S_I2T_N BYTE 0 O S_I2T_N_NA DR 91: Sum of I2T-values N not available BOOL FALSE O x MAINT_MC DR 91: Maintenance information for the

main contacts BYTE 0 O x

MAINT_MC_QC Quality code of MAINT_MC BYTE 0 O MAINT_MC_NA DR 91: Maintenance information for the

main contacts not available BOOL FALSE O x

CON_MOD DR 91: Connected CubicleBus modules DWORD 0 O x CON_MOD_QC Quality code of CON_MOD BYTE 0 O CON_MOD_NA DR 91: Connected CubicleBus modules

Not Available BOOL FALSE O x

DIAG_WRN DR 92: Active warnings WORD 0 O DIAG_WRN_QC Quality code of DIAG_WRN BYTE 0 O DIAG_TRIP DR 92: Trips of the extended protective

function WORD 0 O

DIAG_TRIP_QC Quality code of DIAG_TRIP BYTE 0 O DIAG_SP DR 92: Setpoints warnings DWORD 0 O DIAG_SP_QC Quality code of DIAG_SP BYTE 0 O WRN_NO1 Warning number 1 INT 0 O x WRN_NO2 Warning number 2 INT 0 O x WRN_NO3 Warning number 3 INT 0 O x WRN_NO4 Warning number 4 INT 0 O x WRN_NO5 Warning number 5 INT 0 O x WRN_NO6 Warning number 6 INT 0 O x WRN_NO7 Warning number 7 INT 0 O x WRN_NO8 Warning number 8 INT 0 O x TRIP_NO1 Trip number 1 INT 0 O x TRIP_NO2 Trip number 2 INT 0 O x TRIP_NO3 Trip number 3 INT 0 O x TRIP_NO4 Trip number 4 INT 0 O x TRIP_NO5 Trip number 5 INT 0 O x TRIP_NO6 Trip number 6 INT 0 O x TRIP_NO7 Trip number 7 INT 0 O x TRIP_NO8 Trip number 8 INT 0 O x SP_NO1 Setpoint warning number 1 INT 0 O x SP_NO2 Setpoint warning number 2 INT 0 O x SP_NO3 Setpoint warning number 3 INT 0 O x SP_NO4 Setpoint warning number 4 INT 0 O x SP_NO5 Setpoint warning number 5 INT 0 O x SP_NO6 Setpoint warning number 6 INT 0 O x SP_NO7 Setpoint warning number 7 INT 0 O x SP_NO8 Setpoint warning number 8 INT 0 O x



I/O (parameter) Comment Data type Default Type OCM CUR_UNBAL DR 94: Phase unbalanced current (in %) REAL 0.0 O x CUR_UNBAL_QC Quality code of CUR_UNBAL BYTE 0 O CUR_UNBAL_NA DR 94: Phase unbalanced current (in %)


CUR_DEM3 DR 94: Demand current 3-phases REAL 0.0 O x CUR_DEM3_QC Quality code of CUR_DEM3 BYTE 0 O CUR_DEM3_NA DR 94: Demand current 3-phases not


CUR_DEM_L1 DR 94: Demand current L1 REAL 0.0 O x CUR_DEM_L1_QC Quality code of CUR_DEM_L1 BYTE 0 O CUR_DEM_L1_NA DR 94: Demand current L1 not available BOOL FALSE O x CUR_DEM_L2 DR 94: Demand current L2 REAL 0.0 O x CUR_DEM_L2_QC Quality code of CUR_DEM_L2 BYTE 0 O CUR_DEM_L2_NA DR 94: Demand current L2 not available BOOL FALSE O x CUR_DEM_L3 DR 94: Demand current L3 REAL 0.0 O x CUR_DEM_L3_QC Quality code of CUR_DEM_L3 BYTE 0 O CUR_DEM_L3_NA DR 94: Demand current L3 not available BOOL FALSE O x CUR_L1_DR94 DR 94: Current in phase 1 REAL 0.0 O x CUR_L1_DR94_QC Quality code of CUR_L1_DR94 BYTE 0 O CUR_L1_DR94_NA DR 94: Current in phase 1 not available BOOL FALSE O x CUR_L2_DR94 DR 94: Current in phase 2 REAL 0.0 O x CUR_L2_DR94_QC Quality code of CUR_L2_DR94 BYTE 0 O CUR_L2_DR94_NA DR 94: Current in phase 2 not available BOOL FALSE O x CUR_L3_DR94 DR 94: Current in phase 3 REAL 0.0 O x CUR_L3_DR94_QC Quality code of CUR_L3_DR94 BYTE 0 O CUR_L3_DR94_NA DR 94: Current in phase 3 not available BOOL FALSE O x CUR_DEM3PH DR 94: Current demand over three phases REAL 0.0 O x CUR_DEM3PH_QC Quality code of CUR_DEM3PH BYTE 0 O CUR_DEM3PH_NA DR 94: Current demand over three phases


CUR_N_DR94 DR 94: Current N-phase REAL 0.0 O x CUR_N_DR94_QC Quality code of CUR_N_DR94 BYTE 0 O CUR_N_DR94_NA DR 94: Current N-phase not available BOOL FALSE O x CUR_EARTH_F DR 94: Earth fault current REAL 0.0 O x CUR_EARTH_F_QC Quality code of CUR_EARTH_F BYTE 0 O CUR_EARTH_F_NA DR 94: Earth fault current not available BOOL FALSE O x VOLT_UNBAL DR 94: Phase unbalanced voltage (in %) REAL 0.0 O x VOLT_UNBAL_QC Quality code of VOLT_UNBAL BYTE 0 O VOLT_UNBAL_NA DR 94: Phase unbalanced voltage (in %)


VOLT_L1L2 DR 94: Delta voltage between phase L1 and L2

REAL 0.0 O x

VOLT_L1L2_QC Quality code of VOLT_L1L2 BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM VOLT_L1L2_NA DR 94: Delta voltage between phase L1

and L2 not available BOOL FALSE O x


REAL 0.0 O x

VOLT_L2L3_QC Quality code of VOLT_L2L3 BYTE 0 O VOLT_L2L3_NA DR 94: Delta voltage between phase L2



REAL 0.0 O x

VOLT_L3L1_QC Quality code of VOLT_L3L1 BYTE 0 O VOLT_L3L1_NA DR 94: Delta voltage between phase L3


VOLT_L1N DR 94: Star voltage phase L1 REAL 0.0 O x VOLT_L1N_QC Quality code of VOLT_L1N BYTE 0 O VOLT_L1N_NA DR 94: Star voltage phase L1 not available BOOL FALSE O x VOLT_L2N DR 94: Star voltage phase L2 REAL 0.0 O x VOLT_L2N_QC Quality code of VOLT_L2N BYTE 0 O VOLT_L2N_NA DR 94: Star voltage phase L2 not available BOOL FALSE O x VOLT_L3N DR 94: Star voltage phase L3 REAL 0.0 O x VOLT_L3N_QC Quality code of VOLT_L3N BYTE 0 O VOLT_L3N_NA DR 94: Star voltage phase L3 not available BOOL FALSE O x VOLT_DEM_D DR 94: Demand of the delta voltage REAL 0.0 O x VOLT_DEM_D_QC Quality code of VOLT_DEM_D BYTE 0 O VOLT_DEM_D_NA DR 94: Demand of the delta voltage not


VOLT_DEM_S DR 94: Demand of the star voltage REAL 0.0 O x VOLT_DEM_S_QC Quality code of VOLT_DEM_S BYTE 0 O VOLT_DEM_S_NA DR 94: Demand of the star voltage not


SUM_AP DR 94: Sum of apparent power REAL 0.0 O x SUM_AP_QC Quality code of SUM_AP BYTE 0 O SUM_AP_NA DR 94: Sum of apparent power not


SUM_RP DR 94: Sum of real power REAL 0.0 O x SUM_RP_QC Quality code of SUM_RP BYTE 0 O SUM_RP_NA DR 94: Sum of real power not available BOOL FALSE O x RP_L1 DR 94: Real power in phase L1 REAL 0.0 O x RP_L1_QC Quality code of RP_L1 BYTE 0 O RP_L1_NA DR 94: Real power in phase L1 not


RP_L2 DR 94: Real power in phase L2 REAL 0.0 O x RP_L2_QC Quality code of RP_L2 BYTE 0 O RP_L2_NA DR 94: Real power in phase L2 not


RP_L3 DR 94: Real power in phase L3 REAL 0.0 O x



I/O (parameter) Comment Data type Default Type OCM RP_L3_QC Quality code of RP_L3 BYTE 0 O RP_L3_NA DR 94: Real power in phase L3 not


SUM_RAP DR 94: Sum of reactive power REAL 0.0 O x SUM_RAP_QC Quality code of SUM_RAP BYTE 0 O SUM_RAP_NA DR 94: Sum of reactive power not


DEM_RP3 DR 94: Demand of the real power 3-phases

REAL 0.0 O x

DEM_RP3_QC Quality code of DEM_RP3 BYTE 0 O DEM_RP3_NA DR 94: Demand of the real power 3-

phases not available BOOL FALSE O x

DEM_RP_L1 DR 94: Demand of the real power in phase L1

REAL 0.0 O x

DEM_RP_L1_QC Quality code of DEM_RP_L1 BYTE 0 O DEM_RP_L1_NA DR 94: Demand of the real power in phase

L1 not available BOOL FALSE O x


REAL 0.0 O x




REAL 0.0 O x



DEM_AP3 DR 94: Demand of the apparent power 3-phases

REAL 0.0 O x

DEM_AP3_QC Quality code of DEM_AP3 BYTE 0 O DEM_AP3_NA DR 94: Demand of the apparent power 3-


AP_L1 DR 94: Apparent power in phase L1 REAL 0.0 O x AP_L1_QC Quality code of AP_L1 BYTE 0 O AP_L1_NA DR 94: Apparent power in phase L1 not






DEM_AP_L1 DR 94: Demand of the apparent power in phase L1

REAL 0.0 O x



I/O (parameter) Comment Data type Default Type OCM DEM_AP_L1_QC Quality code of DEM_AP_L1 BYTE 0 O DEM_AP_L1_NA DR 94: Demand of the apparent power in

phase L1 not available BOOL FALSE O x


REAL 0.0 O x

DEM_AP_L2_QC Quality code of DEM_AP_L2 BYTE 0 O DEM_AP_L2_NA DR 94: Demand of the apparent power in



REAL 0.0 O x

DEM_AP_L3_QC Quality code of DEM_AP_L3 BYTE 0 O DEM_AP_L3_NA DR 94: Demand of the apparent power in


DEM_RAP3 DR 94: Demand of the reactive power 3-phases

REAL 0.0 O x

DEM_RAP3_QC Quality code of DEM_RAP3 BYTE 0 O DEM_RAP3_NA DR 94: Demand of the reactive power 3-


RAP_L1 DR 94: Reactive power in phase L1 REAL 0.0 O x RAP_L1_QC Quality code of RAP_L1 BYTE 0 O RAP_L1_NA DR 94: Reactive power in phase L1 not






RE_NORM DR 94: Real energy in normal direction [MWh]

REAL 0.0 O x

RE_NORM_QC Quality code of RE_NORM BYTE 0 O RE_NORM_NA DR 94: Real energy in normal direction

[MWh] not available BOOL FALSE O x

RE_REV DR 94: Real energy in reverse direction [MWh]

REAL 0.0 O x

RE_REV_QC Quality code of RE_REV BYTE 0 O RE_REV_NA DR 94: Real energy in reverse direction

[MWh] not available BOOL FALSE O x

REC_E_NORM DR 94: Reactive energy in normal direction [MVarh]

REAL 0.0 O x

REC_E_NORM_QC Quality code of REC_E_NORM BYTE 0 O REC_E_NORM_NA DR 94: Reactive energy in normal direction

[MVarh] not available BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM REC_E_REV DR 94: Reactive energy in reverse

direction [MVarh] REAL 0.0 O x

REC_E_REV_QC Quality code of REC_E_REV BYTE 0 O REC_E_REV_NA DR 94: Reactive energy in reverse

direction [MVarh] not available BOOL FALSE O x

PF_DEM DR 94: Demand of the power factor REAL 0.0 O x PF_DEM_QC Quality code of PF_DEM BYTE 0 O PF_DEM_NA DR 94: Demand of the power factor not


PF_L1 DR 94: Power factor in phase L1 REAL 0.0 O x PF_L1_QC Quality code of PF_L1 BYTE 0 O PF_L1_NA DR 94: Power factor in phase L1 not






FRQ DR 94: Frequency REAL 0.0 O x FRQ_QC Quality code of FRQ BYTE 0 O FRQ_NA DR 94: Frequency not available BOOL FALSE O x THD_CUR94 DR 94: THD of the current REAL 0.0 O x THD_CUR94_QC Quality code of THD_CUR94 BYTE 0 O THD_CUR94_NA DR 94: THD of the current not available BOOL FALSE O x THD_VOLT DR 94: THD of the voltage REAL 0.0 O x THD_VOLT_QC Quality code of THD_VOLT BYTE 0 O THD_VOLT_NA DR 94: THD of the voltage not available BOOL FALSE O x FORM_F DR 94: Form factor REAL 0.0 O x FORM_F_QC Quality code of FORM_F BYTE 0 O FORM_F_NA DR 94: Form factor not available BOOL FALSE O x CREST_F DR 94: Crest factor REAL 0.0 O x CREST_F_QC Quality code of CREST_F BYTE 0 O CREST_F_NA DR 94: Crest factor not available BOOL FALSE O x TMP_CUB DR 94: Temperature in the cubicle (det. in

the COM15) REAL 0.0 O x

TMP_CUB_QC Quality code of TMP_CUB BYTE 0 O TMP_CUB_NA DR 94: Temperature in the cubicle (det. in

the COM15) not available BOOL FALSE O x

TMP_MSAE DR 94: Temperature in the circuit breaker (det. in BSS)

REAL 0.0 O x

TMP_MSAE_QC Quality code of TMP_MSAE BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM TMP_MSAE_NA DR 94: Temperature in the circuit breaker

(det. in BSS) not available BOOL FALSE O x

C_VT_YD DR128: Primary connection of the voltage transformer Ypsilon or Delta

BOOL FALSE O x

C_VT_YD_QC Quality code of C_VT_YD BYTE 0 O C_VT_YD_OFF DR 128: Primary connection of the voltage

transformer Ypsilon or Delta OFF BOOL FALSE O x

C_VT_YD_NA DR 128: Primary connection of the voltage transformer Ypsilon or Delta not available

BOOL FALSE O x

T_VOLT_T DR 128: Typ voltage transformer BYTE 0 O x T_VOLT_T_QC Quality code of T_VOLT_T BYTE 0 O T_VOLT_T_OFF DR 128: Typ voltage transformer OFF BOOL FALSE O x T_VOLT_T_NA DR 128: Typ voltage transformer not


ROV_PH_PH DR 128: Rated operational voltage (Phase2Phase)

REAL 0.0 O x

ROV_PH_PH_QC Quality code of ROV_PH_PH BYTE 0 O ROV_PH_PH_OFF DR 128: Rated operational voltage

(Phase2Phase) OFF BOOL FALSE O x

ROV_PH_PH_NA DR 128: Rated operational voltage (Phase2Phase) not available

BOOL FALSE O x

SEC_VOLT DR 128: Secondary voltage of the voltage transformer

REAL 0.0 O x

SEC_VOLT_QC Quality code of SEC_VOLT BYTE 0 O SEC_VOLT_OFF DR 128: Secondary voltage of the voltage

transformer OFF BOOL FALSE O x

SEC_VOLT_NA DR 128: Secondary voltage of the voltage transformer not available

BOOL FALSE O x

PER_DEM DR 128: Length of period for demand calculating

REAL 0.0 O x

PER_DEM_QC Quality code of PER_DEM BYTE 0 O PER_DEM_OFF DR 128: Length of period for demand

calculating OFF BOOL FALSE O x

PER_DEM_NA DR 128: Length of period for demand calculating not available

BOOL FALSE O x

SUB_PER DR 128: No. of sub periods for calculating demands

REAL 0.0 O x

SUB_PER_QC Quality code of SUB_PER BYTE 0 O SUB_PER_OFF DR 128: No. of sub periods for calculating

demands OFF BOOL FALSE O x

SUB_PER_NA DR 128: No. of sub periods for calculating demands not available

BOOL FALSE O x

CUR_TRNS_LIM DR 128: Current transmission limit; below this all currents will be set to 0

REAL 0.0 O x

CUR_TRNS_LIM_QC Quality code of CUR_TRNS_LIM BYTE 0 O CUR_TRNS_LIM_OFF DR 128: Current transmission limit; below

this all currents will be set to 0 OFF BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM CUR_TRNS_LIM_NA DR 128: Current transmission limit; below

this all currents will be set to 0 not available

BOOL FALSE O x

RP_NORM DR 128: Real power in normal direction REAL 0.0 O x RP_NORM_QC Quality code of RP_NORM BYTE 0 O RP_NORM_OFF DR 128: Real power in normal direction

OFF BOOL FALSE O x

RP_NORM_NA DR 128: Real power in normal direction not available

BOOL FALSE O x

RP_REV DR 128: Real power in reverse direction REAL 0.0 O x RP_REV_QC Quality code of RP_REV BYTE 0 O RP_REV_OFF DR 128: Real power in reverse direction

OFF BOOL FALSE O x

RP_REV_NA DR 128: Real power in reverse direction not available

BOOL FALSE O x

T_RP_NORM DR 128: Delay time for real power in normal direction

REAL 0.0 O x

T_RP_NORM_QC Quality code of T_RP_NORM BYTE 0 O T_RP_NORM_OFF DR 128: Delay time for real power in

normal direction OFF BOOL FALSE O x

T_RP_NORM_NA DR 128: Delay time for real power in normal direction not available

BOOL FALSE O x

T_RP_REV DR 128: Delay time for real power in reverse direction

REAL 0.0 O x

T_RP_REV_QC Quality code of T_RP_REV BYTE 0 O T_RP_REV_OFF DR 128: Delay time for real power in

reverse direction OFF BOOL FALSE O x

T_RP_REV_NA DR 128: Delay time for real power in reverse direction not available

BOOL FALSE O x

NORM_DIR DR 128: Definition of the normal energy direction

BOOL FALSE O x

NORM_DIR_QC Quality code of NORM_DIR BYTE 0 O NORM_DIR_OFF DR 128: Definition of the normal energy

direction OFF BOOL FALSE O x

NORM_DIR_NA DR 128: Definition of the normal energy direction not available

BOOL FALSE O x

PH_ROT DR 128: Phase rotation BOOL FALSE O x PH_ROT_QC Quality code of PH_ROT BYTE 0 O PH_ROT_OFF DR 128: Phase rotation OFF BOOL FALSE O x PH_ROT_NA DR 128: Phase rotation not available BOOL FALSE O x UNDER_FRQ DR 128: Under frequency REAL 0.0 O x UNDER_FRQ_QC Quality code of UNDER_FRQ BYTE 0 O UNDER_FRQ_OFF DR 128: Under frequency OFF BOOL FALSE O x UNDER_FRQ_NA DR 128: Under frequency not available BOOL FALSE O x T_OV_FRQ DR 128: Delay time for over frequency REAL 0.0 O x T_OV_FRQ_QC Quality code of T_OV_FRQ BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM T_OV_FRQ_OFF DR 128: Delay time for over frequency

OFF BOOL FALSE O x

T_OV_FRQ_NA DR 128: Delay time for over frequency not available

BOOL FALSE O x

T_UN_FRQ DR 128: Delay time for under frequency REAL 0.0 O x T_UN_FRQ_QC Quality code of T_UN_FRQ BYTE 0 O T_UN_FRQ_OFF DR 128: Delay time for under frequency

OFF BOOL FALSE O x

T_UN_FRQ_NA DR 128: Delay time for under frequency not available

BOOL FALSE O x

OV_FRQ DR 128: Over frequency REAL 0.0 O x OV_FRQ_QC Quality code of OV_FRQ BYTE 0 O OV_FRQ_OFF DR 128: Over frequency OFF BOOL FALSE O x OV_FRQ_NA DR 128: Over frequency not available BOOL FALSE O x THD_CUR DR 128: THD of the current REAL 0.0 O x THD_CUR_QC Quality code of THD_CUR BYTE 0 O THD_CUR_OFF DR 128: THD of the current OFF BOOL FALSE O x THD_CUR_NA DR 128: THD of the current not available BOOL FALSE O x T_THD_CUR DR 128: Delay time for THD of the current REAL 0.0 O x T_THD_CUR_QC Quality code of T_THD_CUR BYTE 0 O T_THD_CUR_OFF DR 128: Delay time for THD of the current

OFF BOOL FALSE O x

T_THD_CUR_NA DR 128: Delay time for THD of the current not available

BOOL FALSE O x

PU_THD_VOLT DR 128: Pickup THD voltage REAL 0.0 O x PU_THD_VOLT_QC Quality code of PU_THD_VOLT BYTE 0 O PU_THD_VOLT_OFF DR 128: Pickup THD voltage OFF BOOL FALSE O x PU_THD_VOLT_NA DR 128: Pickup THD voltage not available BOOL FALSE O x T_THD_VOLT DR 128: Delay time for THD of the voltage REAL 0.0 O x T_THD_VOLT_QC Quality code of T_THD_VOLT BYTE 0 O T_THD_VOLT_OFF DR 128: Delay time for THD of the voltage

OFF BOOL FALSE O x

T_THD_VOLT_NA DR 128: Delay time for THD of the voltage not available

BOOL FALSE O x

PH_UNBAL_VOLT DR 128: Phase unbalanced voltage REAL 0.0 O x PH_UNBAL_VOLT_QC Quality code of PH_UNBAL_VOLT BYTE 0 O PH_UNBAL_VOLT_OFF DR 128: Phase unbalanced voltage OFF BOOL FALSE O x PH_UNBAL_VOLT_NA DR 128: Phase unbalanced voltage not


T_PH_U_V DR 128: Delay time for phase unbalanced voltage

REAL 0.0 O x

T_PH_U_V_QC Quality code of T_PH_U_V BYTE 0 O T_PH_U_V_OFF DR 128: Delay time for phase unbalanced

voltage OFF BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM T_PH_U_V_NA DR 128: Delay time for phase unbalanced

voltage not available BOOL FALSE O x

UNDER_VOLT DR 128: Under voltage REAL 0.0 O x UNDER_VOLT_QC Quality code of UNDER_VOLT BYTE 0 O UNDER_VOLT_OFF DR 128: Under voltage OFF BOOL FALSE O x UNDER_VOLT_NA DR 128: Under voltage not available BOOL FALSE O x OVER_VOLT DR 128: Over voltage REAL 0.0 O x OVER_VOLT_QC Quality code of OVER_VOLT BYTE 0 O OVER_VOLT_OFF DR 128: Over voltage OFF BOOL FALSE O x OVER_VOLT_NA DR 128: Over voltage not available BOOL FALSE O x T_UN_VOLT DR 128: Delay time for under voltage REAL 0.0 O x T_UN_VOLT_QC Quality code of T_UN_VOLT BYTE 0 O T_UN_VOLT_OFF DR 128: Delay time for under voltage OFF BOOL FALSE O x T_UN_VOLT_NA DR 128: Delay time for under voltage not


T_OV_VOLT DR 128: Delay time for over voltage REAL 0.0 O x T_OV_VOLT_QC Quality code of T_OV_VOLT BYTE 0 O T_OV_VOLT_OFF DR 128: Delay time for over voltage OFF BOOL FALSE O x T_OV_VOLT_NA DR 128: Delay time for over voltage not


PH_UNBL_CUR DR 128: Phase unbalanced current REAL 0.0 O x PH_UNBL_CUR_QC Quality code of PH_UNBL_CUR BYTE 0 O PH_UNBL_CUR_OFF DR 128: Phase unbalanced current OFF BOOL FALSE O x PH_UNBL_CUR_NA DR 128: Phase unbalanced current not


T_PH_U_CUR DR 128: Delay time for phase unbalanced current

REAL 0.0 O x

T_PH_U_CUR_QC Quality code of T_PH_U_CUR BYTE 0 O T_PH_U_CUR_OFF DR 128: Delay time for phase unbalanced

current OFF BOOL FALSE O x

T_PH_U_CUR_NA DR 128: Delay time for phase unbalanced current not available

BOOL FALSE O x

EV1_OUT1 DR 128: 1. event for the 1st output BYTE 0 O x EV1_OUT1_QC Quality code of EV1_OUT1 BYTE 0 O EV1_OUT1_OFF DR 128: 1. event for the 1st output OFF BOOL FALSE O x EV1_OUT1_NA DR 128: 1. event for the 1st output not




EV3_OUT1 DR 128: 3. event for the 1st output BYTE 0 O x EV3_OUT1_QC Quality code of EV3_OUT1 BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM EV3_OUT1_OFF DR 128: 3. event for the 1st output OFF BOOL FALSE O x EV3_OUT1_NA DR 128: 3. event for the 1st output not








EV1_OUT2 DR 128: 1. event for the 2nd output BYTE 0 O x EV1_OUT2_QC Quality code of EV1_OUT2 BYTE 0 O EV1_OUT2_OFF DR 128: 1. event for the 2nd output OFF BOOL FALSE O x EV1_OUT2_NA DR 128: 1. event for the 2nd output not










EV6_OUT2 DR 128: 6. event for the 2nd output BYTE 0 O x



I/O (parameter) Comment Data type Default Type OCM EV6_OUT2_QC Quality code of EV6_OUT2 BYTE 0 O EV6_OUT2_OFF DR 128: 6. event for the 2nd output OFF BOOL FALSE O x EV6_OUT2_NA DR 128: 6. event for the 2nd output not


EV1_OUT3 DR 128: 1. event for the 3rd output BYTE 0 O x EV1_OUT3_QC Quality code of EV1_OUT3 BYTE 0 O EV1_OUT3_OFF DR 128: 1. event for the 3rd output OFF BOOL FALSE O x EV1_OUT3_NA DR 128: 1. event for the 3rd output not












EV_OUT4 DR 128: Event for the 4th output BYTE 0 O x EV_OUT4_QC Quality code of EV_OUT4 BYTE 0 O EV_OUT4_OFF DR 128: Event for the 4th output OFF BOOL FALSE O x EV_OUT4_NA DR 128: Event for the 4th output not


EV_OUT5 DR 128: Event for the 5th output BYTE 0 O x EV_OUT5_QC Quality code of EV_OUT5 BYTE 0 O EV_OUT5_OFF DR 128: Event for the 5th output OFF BOOL FALSE O x EV_OUT5_NA DR 128: Event for the 5th output not




I/O (parameter) Comment Data type Default Type OCM EV_OUT6 DR 128: Event for the 6th output BYTE 0 O x EV_OUT6_QC Quality code of EV_OUT6 BYTE 0 O EV_OUT6_OFF DR 128: Event for the 6th output OFF BOOL FALSE O x EV_OUT6_NA DR 128: Event for the 6th output not


OV_LD_A DR 129: Overload parameter IR parameter set A (PS A)

REAL 0.0 O x

OV_LD_A_QC Quality code of OV_LD_A BYTE 0 O OV_LD_A_OFF DR 129: Overload parameter IR parameter

set A (PS A) OFF BOOL FALSE O x

OV_LD_A_NA DR 129: Overload parameter IR parameter set A (PS A) not available

BOOL FALSE O x

OV_LD_N_A DR 129: Overload N-phase IN PS A (WL) REAL 0.0 O x OV_LD_N_A_QC Quality code of OV_LD_N_A BYTE 0 O OV_LD_N_A_OFF DR 129: Overload N-phase IN PS A (WL)

OFF BOOL FALSE O x

OV_LD_N_A_NA DR 129: Overload N-phase IN PS A (WL) not available

BOOL FALSE O x

TL_CL_A DR 129: Time lag class tR PS A REAL 0.0 O x TL_CL_A_QC Quality code of TL_CL_A BYTE 0 O TL_CL_A_OFF DR 129: Time lag class tR PS A OFF BOOL FALSE O x TL_CL_A_NA DR 129: Time lag class tR PS A not


IN_PRO_PARA_A DR 129: Instantaneous protection parameter li PS A

REAL 0.0 O x

IN_PRO_PARA_A_QC Quality code of IN_PRO_PARA_A BYTE 0 O IN_PRO_PARA_A_OFF DR 129: Instantaneous protection

parameter li PS A OFF BOOL FALSE O x

IN_PRO_PARA_A_NA DR 129: Instantaneous protection parameter li PS A not available

BOOL FALSE O x

SHORT_D_PROT_A DR 129: Short time delayed prot. parameter lsd PS A

REAL 0.0 O x

SHORT_D_PROT_A_QC Quality code of SHORT_D_PROT_A BYTE 0 O SHORT_D_PROT_A_OFF DR 129: Short time delayed prot.

parameter lsd PS A OFF BOOL FALSE O x

SHORT_D_PROT_A_NA DR 129: Short time delayed prot. parameter lsd PS A not available

BOOL FALSE O x

T_STRIP_A DR 129: Delay time for S-trip tsd PS A REAL 0.0 O x T_STRIP_A_QC Quality code of T_STRIP_A BYTE 0 O T_STRIP_A_OFF DR 129: Delay time for S-trip tsd PS A

OFF BOOL FALSE O x

T_STRIP_A_NA DR 129: Delay time for S-trip tsd PS A not available

BOOL FALSE O x

E_FLT_PROT_A DR 129: Earth fault protection parameter lg1 PS A

REAL 0.0 O x

E_FLT_PROT_A_QC Quality code of E_FLT_PROT_A BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM E_FLT_PROT_A_OFF DR 129: Earth fault protection parameter

lg1 PS A OFF BOOL FALSE O x

E_FLT_PROT_A_NA DR 129: Earth fault protection parameter lg1 PS A not available

BOOL FALSE O x

T_EFLT_A DR 129: Delay time earth fault protection tg1 PS A

REAL 0.0 O x

T_EFLT_A_QC Quality code of T_EFLT_A BYTE 0 O T_EFLT_A_OFF DR 129: Delay time earth fault protection

tg1 PS A OFF BOOL FALSE O x

T_EFLT_A_NA DR 129: Delay time earth fault protection tg1 PS A not available

BOOL FALSE O x

E_FLT_PROT2_A DR 129: Earth fault protection parameter lg2 PS A

REAL 0.0 O x

E_FLT_PROT2_A_QC Quality code of E_FLT_PROT2_A BYTE 0 O E_FLT_PROT2_A_OFF DR 129: Earth fault protection parameter


E_FLT_PROT2_A_NA DR 129: Earth fault protection parameter lg2 PS A not available

BOOL FALSE O x

T_EFLT2_A DR 129: Delay time earth fault protection tg2 PS A

REAL 0.0 O x

T_EFLT2_A_QC Quality code of T_EFLT2_A BYTE 0 O T_EFLT2_A_OFF DR 129: Delay time earth fault protection


T_EFLT2_A_NA DR 129: Delay time earth fault protection tg2 PS A not available

BOOL FALSE O x

I2T_D_STRIP_A DR 129: I2t curve for delayed S-trip PS A BOOL FALSE O x I2T_D_STRIP_A_QC Quality code of I2T_D_STRIP_A BYTE 0 O I2T_D_STRIP_A_OFF DR 129: I2t curve for delayed S-trip PS A

OFF BOOL FALSE O x

I2T_D_STRIP_A_NA DR 129: I2t curve for delayed S-trip PS A not available

BOOL FALSE O x

I2T_EFLT_PROT_A DR 129: I2t curve for earth fault protection PS A

BOOL FALSE O x

I2T_EFLT_PROT_A_QC Quality code of I2T_EFLT_PROT_A BYTE 0 O I2T_EFLT_PROT_A_OFF DR 129: I2t curve for earth fault protection

PS A OFF BOOL FALSE O x

I2T_EFLT_PROT_A_NA DR 129: I2t curve for earth fault protection PS A not available

BOOL FALSE O x

I4T_OVLD_PROT_A DR 129: I4t curve for overload protection PS A

BOOL FALSE O x

I4T_OVLD_PROT_A_QC Quality code of I4T_OVLD_PROT_A BYTE 0 O I4T_OVLD_PROT_A_OFF DR 129: I4t curve for overload protection


I4T_OVLD_PROT_A_NA DR 129: I4t curve for overload protection PS A not available

BOOL FALSE O x

THERM_MEM_A DR 129: Thermal memory PS A BOOL FALSE O x THERM_MEM_A_QC Quality code of THERM_MEM_A BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM THERM_MEM_A_OFF DR 129: Thermal memory PS A OFF BOOL FALSE O x THERM_MEM_A_NA DR 129: Thermal memory PS A not


PH_L_SEN_A DR 129: Phase loss sensitivity PS A BOOL FALSE O x PH_L_SEN_A_QC Quality code of PH_L_SEN_A BYTE 0 O PH_L_SEN_A_OFF DR 129: Phase loss sensitivity PS A OFF BOOL FALSE O x PH_L_SEN_A_NA DR 129: Phase loss sensitivity PS A not


THERM_T_A DR 129: Thermal time constant PS A REAL 0.0 O x THERM_T_A_QC Quality code of THERM_T_A BYTE 0 O THERM_T_A_OFF DR 129: Thermal time constant PS A OFF BOOL FALSE O x THERM_T_A_NA DR 129: Thermal time constant PS A not


OV_LD_B DR 129: Overload parameter IR parameter (PS B)

REAL 0.0 O x

OV_LD_B_QC Quality code of OV_LD_B BYTE 0 O OV_LD_B_OFF DR 129: Overload parameter IR parameter

(PS B) OFF BOOL FALSE O x

OV_LD_B_NA DR 129: Overload parameter IR parameter (PS B) not available

BOOL FALSE O x

OV_LD_N_B DR 129: Overload N-phase IN PS B (WL) REAL 0.0 O x OV_LD_N_B_QC Quality code of OV_LD_N_B BYTE 0 O OV_LD_N_B_OFF DR 129: Overload N-phase IN PS B (WL)

OFF BOOL FALSE O x

OV_LD_N_B_NA DR 129: Overload N-phase IN PS B (WL) not available

BOOL FALSE O x

TL_CL_B DR 129: Time lag class tR PS B REAL 0.0 O x TL_CL_B_QC Quality code of TL_CL_B BYTE 0 O TL_CL_B_OFF DR 129: Time lag class tR PS B OFF BOOL FALSE O x TL_CL_B_NA DR 129: Time lag class tR PS B not


IN_PRO_PARA_B DR 129: Instantaneous protection parameter li PS B

REAL 0.0 O x

IN_PRO_PARA_B_QC Quality code of IN_PRO_PARA_B BYTE 0 O IN_PRO_PARA_B_OFF DR 129: Instantaneous protection

parameter li PS B BOOL FALSE O x

IN_PRO_PARA_B_NA DR 129: Instantaneous protection parameter li PS B not available

BOOL FALSE O x

SHORT_D_PROT_B DR 129: Short time delayed prot. parameter lsd PS B

REAL 0.0 O x

SHORT_D_PROT_B_QC Quality code of SHORT_D_PROT_B BYTE 0 O SHORT_D_PROT_B_OFF DR 129: Short time delayed prot.

parameter lsd PS B OFF BOOL FALSE O x

SHORT_D_PROT_B_NA DR 129: Short time delayed prot. parameter lsd PS B not available

BOOL FALSE O x

T_STRIP_B DR 129: Delay time for S-trip tsd PS B REAL 0.0 O x



I/O (parameter) Comment Data type Default Type OCM T_STRIP_B_QC Quality code of T_STRIP_B BYTE 0 O T_STRIP_B_OFF DR 129: Delay time for S-trip tsd PS B

OFF BOOL FALSE O x

T_STRIP_B_NA DR 129: Delay time for S-trip tsd PS B not available

BOOL FALSE O x

E_FLT_PROT_B DR 129: Earth fault protection parameter lg1 PS B

REAL 0.0 O x

E_FLT_PROT_B_QC Quality code of E_FLT_PROT_B BYTE 0 O E_FLT_PROT_B_OFF DR 129: Earth fault protection parameter

lg1 PS B OFF BOOL FALSE O x

E_FLT_PROT_B_NA DR 129: Earth fault protection parameter lg1 PS B not available

BOOL FALSE O x

T_EFLT_B DR 129: Delay time earth fault protection tg1 PS B

REAL 0.0 O x

T_EFLT_B_QC Quality code of T_EFLT_B BYTE 0 O T_EFLT_B_OFF DR 129: Delay time earth fault protection

tg1 PS B OFF BOOL FALSE O x

T_EFLT_B_NA DR 129: Delay time earth fault protection tg1 PS B not available

BOOL FALSE O x

E_FLT_PROT2_B DR 129: Earth fault protection parameter lg2 PS B

REAL 0.0 O x

E_FLT_PROT2_B_QC Quality code of E_FLT_PROT2_B BYTE 0 O E_FLT_PROT2_B_OFF DR 129: Earth fault protection parameter

lg2 PS B OFF BOOL FALSE O x

E_FLT_PROT2_B_NA DR 129: Earth fault protection parameter lg2 PS B not available

BOOL FALSE O x

T_EFLT2_B DR 129: Delay time earth fault protection tg2 PS B

REAL 0.0 O x

T_EFLT2_B_QC Quality code of T_EFLT2_B BYTE 0 O T_EFLT2_B_OFF DR 129: Delay time earth fault protection

tg2 PS B OFF BOOL FALSE O x

T_EFLT2_B_NA DR 129: Delay time earth fault protection tg2 PS B not available

BOOL FALSE O x

I2T_D_STRIP_B DR 129: I2t curve for delayed S-trip PS B BOOL FALSE O x I2T_D_STRIP_B_QC Quality code of I2T_D_STRIP_B BYTE 0 O I2T_D_STRIP_B_OFF DR 129: I2t curve for delayed S-trip PS B

OFF BOOL FALSE O x

I2T_D_STRIP_B_NA DR 129: I2t curve for delayed S-trip PS B not available

BOOL FALSE O x

I2T_EFLT_PROT_B DR 129: I2t curve for earth fault protection PS B

BOOL FALSE O x

I2T_EFLT_PROT_B_QC Quality code of I2T_EFLT_PROT_B BYTE 0 O I2T_EFLT_PROT_B_OFF DR 129: I2t curve for earth fault protection

PS B OFF BOOL FALSE O x

I2T_EFLT_PROT_B_NA DR 129: I2t curve for earth fault protection PS B not available

BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM I4T_OVLD_PROT_B DR 129: I4t curve for overload protection

PS B BOOL FALSE O x

I4T_OVLD_PROT_B_QC Quality code of I4T_OVLD_PROT_B BYTE 0 O I4T_OVLD_PROT_B_OFF DR 129: I4t curve for overload protection

PS B OFF BOOL FALSE O x

I4T_OVLD_PROT_B_NA DR 129: I4t curve for overload protection PS B not available

BOOL FALSE O x

THERM_MEM_B DR 129: Thermal memory PS B BOOL FALSE O x THERM_MEM_B_QC Quality code of THERM_MEM_B BYTE 0 O THERM_MEM_B_OFF DR 129: Thermal memory PS B OFF BOOL FALSE O x THERM_MEM_B_NA DR 129: Thermal memory PS B not


PH_L_SEN_B DR 129: Phase loss sensitivity PS B BOOL FALSE O x PH_L_SEN_B_QC Quality code of PH_L_SEN_B BYTE 0 O PH_L_SEN_B_OFF DR 129: Phase loss sensitivity PS B OFF BOOL FALSE O x PH_L_SEN_B_NA DR 129: Phase loss sensitivity PS B not


THERM_T_B DR 129: Thermal time constant PS B REAL 0.0 O x THERM_T_B_QC Quality code of THERM_T_B BYTE 0 O THERM_T_B_OFF DR 129: Thermal time constant PS B OFF BOOL FALSE O x THERM_T_B_NA DR 129: Thermal time constant PS B not


LD_SHED DR 129: Load shedding REAL 0.0 O x LD_SHED_QC Quality code of LD_SHED BYTE 0 O LD_SHED_OFF DR 129: Load shedding OFF BOOL FALSE O x LD_SHED_NA DR 129: Load shedding not available BOOL FALSE O x LD_REST DR 129: Load restorage REAL 0.0 O x LD_REST_QC Quality code of LD_REST BYTE 0 O LD_REST_OFF DR 129: Load restorage OFF BOOL FALSE O x LD_REST_NA DR 129: Load restorage not available BOOL FALSE O x T_SHED_REST DR 129: Delay time load shedd./restorage REAL 0.0 O x T_SHED_REST_QC Quality code of T_SHED_REST BYTE 0 O T_SHED_REST_OFF DR 129: Delay time load shedd./restorage

OFF BOOL FALSE O x

T_SHED_REST_NA DR 129: Delay time load shedd./restorage not available

BOOL FALSE O x

ACT_PARA DR 129: Active parameter set BOOL FALSE O x ACT_PARA_QC Quality code of ACT_PARA BYTE 0 O ACT_PARA_OFF DR 129: Active parameter set OFF BOOL FALSE O x ACT_PARA_NA DR 129: Active parameter set not available BOOL FALSE O x EARTH_FLT_CUR DR 129: Determination of earth fault

current REAL 0.0 O x

EARTH_FLT_CUR_QC Quality code of EARTH_FLT_CUR BYTE 0 O EARTH_FLT_CUR_OFF DR 129: Determination of earth fault

current OFF BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM EARTH_FLT_CUR_NA DR 129: Determination of earth fault

current not available BOOL FALSE O x

R_CUR_GRD_FLT DR 129: Rated current ground fault transformer

REAL 0.0 O x

R_CUR_GRD_FLT_QC Quality code of R_CUR_GRD_FL BYTE 0 O R_CUR_GRD_FLT_OFF DR 129: Rated current ground fault

transformer OFF BOOL FALSE O x

R_CUR_GRD_FLT_NA DR 129: Rated current ground fault transformer not available

BOOL FALSE O x

MLFB DR 129: Catalog number CB as upgraded or changed by cust. or service (text)

STRING[18] O x

MLFB_QC Quality code of MLFB BYTE 0 O MLFB_OFF DR 129: Catalog number CB as upgraded

or changed by cust. or service (text) OFF BOOL FALSE O x

MLFB_NA DR 129: Catalog number CB as upgraded or changed by cust. or service (text) not available

BOOL FALSE O x

RP_NORM_O DR 130: Real power in normal direction REAL 0.0 O RP_NORM_O_QC Quality code of RP_NORM_O BYTE 0 O RP_REV_O DR 130: Real power in reverse direction REAL 0.0 O RP_REV_O_QC Quality code of RP_REV_O BYTE 0 O PF_CAP_O DR 130: Power factor capacitive REAL 0.0 O PF_CAP_O_QC Quality code of PF_CAP_O BYTE 0 O PF_IND_O DR 130: Power factor inductive REAL 0.0 O PF_IND_O_QC Quality code of PF_IND_O BYTE 0 O T_RP_NORM_O DR 130: Delay time for real power in

normal direction REAL 0.0 O

T_RP_NORM_O_QC Quality code of T_RP_NORM_O BYTE 0 O T_RP_REV_O DR 130: Delay time for real power in

reverse direction REAL 0.0 O

T_RP_REV_O_QC Quality code of T_RP_REV_O BYTE 0 O T_PF_CAP_O DR 130: Delay time for power factor

capacitive REAL 0.0 O

T_PF_CAP_O_QC Quality code of T_PF_CAP_O BYTE 0 O T_PF_IND_O DR 130: Delay time for power factor

inductive REAL 0.0 O

T_PF_IND_O_QC Quality code of T_PF_IND_O BYTE 0 O OVER_FRQ_O DR 130: Over frequency REAL 0.0 O OVER_FRQ_O_QC Quality code of OVER_FRQ_O BYTE 0 O T_OVER_FRQ_O DR 130: Delay time for over frequency REAL 0.0 O T_OVER_FRQ_O_QC Quality code of T_OVER_FRQ_O BYTE 0 O UNDER_FRQ_O DR 130: Under frequency REAL 0.0 O UNDER_FRQ_O_QC Quality code of UNDER_FRQ_O BYTE 0 O T_UNDER_FRQ_O DR 130: Delay time for under frequency REAL 0.0 O T_UNDER_FRQ_O_QC Quality code of T_UNDER_FRQ_O BYTE 0 O



I/O (parameter) Comment Data type Default Type OCM CUR_THD_O DR 130: THD current REAL 0.0 O CUR_THD_O_QC Quality code of CUR_THD_O BYTE 0 O T_CUR_THD_O DR 130: Delay time for THD current REAL 0.0 O T_CUR_THD_O_QC Quality code of T_CUR_THD_O BYTE 0 O VOLT_THD_O DR 130: THD voltage REAL 0.0 O VOLT_THD_O_QC Quality code of VOLT_THD_O BYTE 0 O T_VOLT_THD_O DR 130: Delay time for THD voltage REAL 0.0 O T_VOLT_THD_O_QC Quality code of T_VOLT_THD_O BYTE 0 O CREST_F_O DR 130: Crest factor REAL 0.0 O CREST_F_O_QC Quality code of CREST_F_O BYTE 0 O FORM_F_O DR 130: Form factor REAL 0.0 O FORM_F_O_QC Quality code of FORM_F_O BYTE 0 O T_CREST_F_O DR 130: Delay time for crest factor REAL 0.0 O T_CREST_F_O_QC Quality code of T_CREST_F_O BYTE 0 O T_FORM_F_O DR 130: Delay time for form factor REAL 0.0 O T_FORM_F_O_QC Quality code of T_FORM_F_O BYTE 0 O RP_DEM_O DR 130: Demand real power REAL 0.0 O RP_DEM_O_QC Quality code of PR_DEM_O BYTE 0 O AP_DEM_O DR 130: Demand apparent power REAL 0.0 O AP_DEM_O_QC Quality code of AP_DEM_O BYTE 0 O T_RP_DEM_O DR 130: Delay time demand of the real

power REAL 0.0 O

T_RP_DEM_O_QC Quality code of T_RP_DEM_O BYTE 0 O T_AP_DEM_O DR 130: Delay time demand of the

apparent power REAL 0.0 O

T_AP_DEM_O_QC Quality code of T_AP_DEM_O BYTE 0 O RAP_DEM_O DR 130: Demand reactive power REAL 0.0 O RAP_DEM_O_QC Quality code of RAP_DEM_O BYTE 0 O RAP_NORM_O DR 130: Reactive power in normal

direction REAL 0.0 O

RAP_NORM_O_QC Quality code of RAP_NORM_O BYTE 0 O T_RAP_DEM_O DR 130: Delay time demand of the

reactive power REAL 0.0 O

T_RAP_DEM_O_QC Quality code of T_RAP_DEM_O BYTE 0 O T_RAP_NORM_O DR 130: Delay time for reactive power in

normal direction REAL 0.0 O

T_RAP_NORM_O_QC Quality code of T_RAP_NORM_O BYTE 0 O RAP_REV_O DR 130: Reactive power in reverse

direction REAL 0.0 O

RAP_REV_O_QC Quality code of RAP_REV_O BYTE 0 O AP_O DR 130: Apparent power REAL 0.0 O AP_O_QC Quality code of AP_O BYTE 0 O T_RAP_REV_O DR 130: Delay time for reactive power in

reverse direction REAL 0.0 O



I/O (parameter) Comment Data type Default Type OCM T_RAP_REV_O_QC Quality code of T_RAP_REV_O BYTE 0 O T_AP_O DR 130: Delay time for apparent power REAL 0.0 O T_AP_O_QC Quality code of T_AP_O BYTE 0 O CUR_OVER_O DR 130: Over current REAL 0.0 O CUR_OVER_O_QC Quality code of CUR_OVER_O BYTE 0 O CUR_GRD_O DR 130: Earth fault current REAL 0.0 O CUR_GRD_O_QC Quality code of CUR_GRD_O BYTE 0 O CUR_N_O DR 130: Over current N-phase REAL 0.0 O CUR_N_O_QC Quality code of CUR_N_O BYTE 0 O CUR_DEM_O DR 130: Demand of the current REAL 0.0 O CUR_DEM_O_QC Quality code of CUR_DEM_O BYTE 0 O T_CUR_OVER_O DR 130: Delay time for over current REAL 0.0 O T_CUR_OVER_O_QC Quality code of T_CUR_OVER_O BYTE 0 O T_CUR_GRD_O DR 130: Delay time for over current

ground REAL 0.0 O

T_CUR_GRD_O_QC Quality code of T_CUR_GRD_O BYTE 0 O T_CUR_N_O DR 130: Delay time for over current N-

phase REAL 0.0 O

T_CUR_N_O_QC Quality code of T_CUR_N_O BYTE 0 O UNBAL_CUR_O DR 130: Phase unbalance current REAL 0.0 O UNBAL_CUR_O_QC Quality code of UNBAL_CUR_O BYTE 0 O T_UNBAL_CUR_O DR 130: Delay time for phase unbalance

current REAL 0.0 O

T_UNBAL_CUR_O_QC Quality code of T_UNBAL_CUR_O BYTE 0 O T_CUR_DEM_O DR 130: Delay time for demand of the

current REAL 0.0 O

T_CUR_DEM_O_QC Quality code of T_CUR_DEM_O BYTE 0 O UNDER_VOLT_O DR 130: Under voltage REAL 0.0 O UNDER_VOLT_O_QC Quality code of UNDER_VOLT_O BYTE 0 O T_UNDER_VOLT_O DR 130: Delay time for under voltage REAL 0.0 O T_UNDER_VOLT_O_QC Quality code of T_UNDER_VOLT_O BYTE 0 O UNBAL_VOLT_O DR 130: Phase unbalance voltage REAL 0.0 O UNBAL_VOLT_O_QC Quality code of UNBAL_VOLT_O BYTE 0 O T_UNBAL_VOLT_O DR 130: Delay time for phase unbalance

voltage REAL 0.0 O

T_UNBAL_VOLT_O_QC Quality code of T_UNBAL_VOLT_O BYTE 0 O OVER_VOLT_O DR 130: Over voltage REAL 0.0 O OVER_VOLT_O_QC Quality code of OVER_VOLT_O BYTE 0 O T_OVER_VOLT_O DR 130: Delay time for over voltage REAL 0.0 O T_OVER_VOLT_O_QC Quality code of T_OVER_VOLT_O BYTE 0 O



3.2.10 Description of symbols and faceplates

Description of symbols and faceplates: ● Symbol with 1 measurement ● Faceplate ● Standard view ● Measurements view, current tab ● Measurements view, voltage tab ● Measurements view, active power/energy tab ● Measurements view, reactive power/energy tab ● Measurements view, apparent power tab ● Measurements view, miscellaneous tab ● Diagnosis view, warnings tab ● Diagnosis view, trip reason tab ● Diagnosis view, setpoints tab ● Maintenance view, maintenance 1 tab ● Maintenance view, maintenance 2 tab ● Maintenance view, operation tab ● Protect. para view, parameter set A ● Protect. para view, parameter set B ● Protect. para view, additional tab ● Ext. protect. para view, current tab ● Ext. protect. para view, voltage tab ● Ext. protect. para view, reactive power tab ● Ext. protect. para view, frequency tab ● Setpoints view, current tab ● Setpoints view, voltage tab ● Setpoints view, frequency tab ● Setpoints view, active power tab ● Setpoints view, apparent/reactive power tab ● Message suppression view



Block icon with 1 measurement

(1) MAX_CUR

Figure 3-1 Symbol with 1 measurement

Meaning of measurements Element (parameters) Meaning MAX_CUR Maximum phase current

Faceplate The faceplate available is described in this chapter. The following views are available: Standard Measurements with the tabs Current MEASUREMENT_CUR Voltage MEASUREMENT_VOLT Active power/energy MEASUREMENT_ACT_POW Reactive

power/energy MEASUREMENT_REACT_POW

Apparent power MEASUREMENT_APP_POW Miscellaneous MEASUREMENT_MISC Diagnosis with the tabs Warnings DIAG_WARN Trip reason DIAG_TRIP Setpoints DIAG_SETPOINTS Maintenance with the tabs Maintenance 1 MAINTENANCE_1 Maintenance 2 MAINTENANCE_2 Operation MAINTENANCE_OP Protect. para with the tabs Parameter Set A PARA_SET_A Parameter Set B PARA_SET_B Additional PROTPARA_ADD Ext. Prot. Para with the tabs Current EXTPROTPARA_CUR Voltage EXTPROTPARA_VOLT Active power EXTPROTPARA_ACT_POW Frequency EXTPROTPARA_FREQ



Setpoints with the tabs Current SETPOINTS_CUR Voltage SETPOINTS_VOLT Active power SETPOINTS_ACT_POW Apparent/Reactive

power SETPOINTS_APP_REACT_POW

Frequency SETPOINTS_FREQ Msg. suppr. Messages Trend

The file name is composed as follows: @PG_DRV_3WL_"View".pdl The PCS 7 standard displays @PCS7_alarm.pdl and @PCS7_trend.pdl are used for the alarm and trend views. The structure of the individual views of faceplates is described below. The appearance of the faceplates differ depending on whether the 3WL is connected directly to the DP master system or whether it is connected following a Y-link. When the 3WL is connected following a Y-link, no data records can be read because the device following a Y-link switches to DPV0 mode. This explains why faceplate views which only contain values from data records are hidden. Values which are displayed despite this and come from data records are cross-faced with "---". These measured values are therefore not indicated in the faceplates. The faceplates in the figures below are shown for direct connection of 3WL to the DP master system.



Standard

(1) QMAN_AUT / AUT_ON_OP (2) MAN_OFF (3) MAN_ON (4) RESET (5) CUR_L1 (6) CUR_L2 (7) CUR_L3 (8) RES_MONERR (9) QMON_ERR (10) MAINT (11) POS_CB (12) QLOC_OFF / ST_CB (13) CUR_MAX (14) ST_CB

Figure 3-2 Faceplate for standard view

not ready OFF ON tripped Symbol for status



Element (parameters) Meaning Display when 3WL is

connected following Y-link ST_CB Status of circuit breaker (Not ready

/ OFF / ON / Tripped) Yes

QLOC_OFF Local turn off of circuit breaker / tripped Yes CUR_MAX Current of phase with maximum load Yes POS_CB Position of circuit breaker Yes MAINT Maintenance mode active / inactive Yes QMON_ERR Monitoring error active / inactive Yes QMAN_AUT / AUT_ON_OP Manual / automatic changeover Yes MAN_OFF Switch off circuit breaker operating command Yes MAN_ON Switch on circuit breaker operating command Yes RESET Reset "Tripped" or "Local turn off" status Yes CUR_L1 Current in phase L1 Yes CUR_L2 Current in phase L2 Yes CUR_L3 Current in phase L3 Yes RES_MONERR Reset monitoring error Yes



Measurements – current tab (MEASUREMENT_CUR)

(1) CUR_L2 (2) CUR_N (3) CUR_DEM_L2 (4) CUR_DEM3 (5) CUR_UNBAL (6) CUR_DEM3PH (7) CUR_EARTH_F (8) THD_CUR94 (9) CUR_DEM_L3 (10) CUR_DEM_L1 (11) CUR_L3 (12) CUR_L1

Figure 3-3 Faceplate for measurements view, current tab


connected following Y-link CUR_L1 Current in phase L1 Yes CUR_L2 Current in phase L2 Yes CUR_L3 Current in phase L3 Yes CUR_N Current in neutral conductor Yes CUR_DEM_L1 Demand for current L1 No CUR_DEM_L2 Demand for current L2 No CUR_DEM_L3 Demand for current L3 No CUR_DEM3 Demand for 3-phase current No CUR_UNBAL Phase unbalance current (as %) No



Element (parameters) Meaning Display when 3WL is connected following Y-link

CUR_DEM3PH Mean current value over the three phases No CUR_EARTH_F Current which flows to earth No THD_CUR94 THD of current No

Measurements – voltage tab (MEASUREMENT_VOLT)

(1) U_L1_N (2) U_L2_N (3) U_L3_N (4) VOLT_DEM_D (5) VOLT_DEM_S (6) VOLT_UNBAL (7) THD_VOLT (8) U_L3_L1 (9) U_L2_L3 (10) U_L1_L2

Figure 3-4 Faceplate for measurements view, voltage tab


connected following Y-link U_L1_L2 Voltage Va-b Yes U_L2_L3 Voltage Vb-c Yes U_L3_L1 Voltage Vc-a Yes U_L1_N Voltage Va-n Yes U_L2_N Voltage Vb-n Yes




U_L3_N Voltage Vc-n Yes VOLT_DEM_D Mean value of phase-to-phase voltage No VOLT_DEM_S Mean value of neutral-point star voltage No VOLT_UNBAL Phase unbalance voltage (as %) No THD_VOLT THD of voltage No

Measurements – active power/energy tab (MEASUREMENT_ACT_POW)

(1) DEM_RP_L1 (2) DEM_RP_L2 (3) DEM_RP_L3 (4) DEM_RP3 (5) SUM_RP (6) ACT_W (7) RE_REV (8) RP_L3 (9) RP_L2 (10) RP_L1

Figure 3-5 Faceplate for measurements view, active power/energy tab

Element (parameters) Meaning Display when 3WL is connected

following Y-link RP_L1 Active power in phase L1 No RP_L2 Active power in phase L2 No RP_L3 Active power in phase L3 No




DEM_RP_L1 Demand of active power in phase L1 No DEM_RP_L2 Demand of active power in phase L2 No DEM_RP_L3 Demand of active power in phase L3 No DEM_RP3 Demand of 3-phase active power No SUM_RP Total active power No ACT_W Active energy in normal direction Yes RE_REV Active energy in reverse direction No

Measurements – reactive power/energy tab (MEASUREMENT_REACT_POW)

(1) RAP_L1 (2) RAP_L2 (3) RAP_L3 (4) SUM_RAP (5) DEM_RAP3 (6) REC_E_NORM (7) REC_E_REV

Figure 3-6 Faceplate for measurements view, reactive power/energy tab


connected following Y-link RAP_L1 Reactive power in phase L1 No RAP_L2 Reactive power in phase L2 No RAP_L3 Reactive power in phase L3 No SUM_RAP Total reactive power No




DEM_RAP3 Demand of 3-phase active power No REC_E_NORM Reactive energy in normal direction No REC_E_REV Reactive energy in reverse direction No

Measurements – apparent power tab (MEASUREMENT_APP_POW)

(1) AP_L1 (2) AP_L2 (3) AP_L3 (4) DEM_AP_L1 (5) DEM_AP_L2 (6) DEM_AP_L3 (7) DEM_AP3 (8) KVA_TOT

Figure 3-7 Faceplate for measurements view, apparent power tab


connected following Y-link AP_L1 Apparent power in phase L1 No AP_L2 Apparent power in phase L2 No AP_L3 Apparent power in phase L3 No DEM_AP_L1 Demand of apparent power in phase L1 No DEM_AP_L2 Demand of apparent power in phase L2 No DEM_AP_L3 Demand of apparent power in phase L3 No




DEM_AP3 Demand of 3-phase apparent power No KVA_TOT Total apparent power Yes

Measurements – miscellaneous tab (MEASUREMENT_MISC)

(1) TMP_CUB (2) TMP_MSAE (3) PF_AVG (4) FRQ (5) FORM_F (6) CREST_F (7) PF_L3 (8) PF_L2 (9) PF_L1

Figure 3-8 Faceplate for measurements view, miscellaneous tab


following Y-link PF_L1 Power factor in phase L1 No PF_L2 Power factor in phase L2 No PF_L3 Power factor in phase L3 No TMP_CUB Temperature in the control cabinet (acc. to in COM15) No TMP_MSAE Temperature in circuit-breaker (acc. to in BSS) No PF_AVG Mean power factor value Yes FRQ Frequency No




FORM_F Form factor No CREST_F Crest factor No

Diagnosis – warnings tab (DIAG_WARN)

(1) WRN_NO1 (2) WRN_NO2 (3) WRN_NO3 (4) WRN_NO4 (5) WRN_NO5 (6) WRN_NO6 (7) WRN_NO7 (8) WRN_NO8

Figure 3-9 Faceplate for diagnosis view, warnings tab


following Y-link WRN_NO1 1st warning currently active No WRN_NO2 2nd warning currently active No WRN_NO3 3rd warning currently active No WRN_NO4 4th warning currently active No WRN_NO5 5th warning currently active No WRN_NO6 6th warning currently active No WRN_NO7 7th warning currently active No WRN_NO8 8th warning currently active No



Possible warnings Pretrip for L Overload Overload N-phase Load shedding warning Load restorage Phase unbalance current µP-Error Earth fault warning Over temperature

Diagnosis – trip reason tab (DIAG_TRIP)

(1) LST_TRIP (2) TRIP_NO

Figure 3-10 Faceplate for diagnosis view, trip reason tab


following Y-link LST_TRIP Trip reason No TRIP_NO Accurate trip reason

in event of trip by extended protective function No



Possible trip reasons (LST_TRIP) Overload tripping (L) Instantaneous short-circuit (I) Short-time-delay short-circuit (S) Ground fault (G) Trip as a result of extended protection function Overload in neutral conductor

Accurate trip reason in event of trip by extended protective function Phase unbalance current Phase unbalance voltage Real power in normal direction Real power in reverse direction Over voltage Under voltage Over frequency Under frequency THD current THD voltage Change of phase rotation



Diagnosis – setpoints tab (DIAG_SETPOINTS)

(1) SP_NO1 (2) SP_NO2 (3) SP_NO3 (4) SP_NO4 (5) SP_NO5 (6) SP_NO6 (7) SP_NO7 (8) SP_NO8

Figure 3-11 Faceplate for diagnosis view, setpoints tab


connected following Y-link SP_NO1 1st current case of setpoint being exceeded No SP_NO2 2nd current case of setpoint being exceeded No SP_NO3 3rd current case of setpoint being exceeded No SP_NO4 4th current case of setpoint being exceeded No SP_NO5 5th current case of setpoint being exceeded No SP_NO6 6th current case of setpoint being exceeded No SP_NO7 7th current case of setpoint being exceeded No SP_NO8 8th current case of setpoint being exceeded No



Possible messages Power factor capacitive Power factor inductive THD current THD voltage Crest factor Form factor Real power in normal direction Real power in reverse direction Demand real power Demand apparent power Demand reactive power Reactive power in normal direction Reactive power in reverse direction Apparent power Over frequency Under frequency Over current Over current earth fault Over current N-phase Phase unbalance current Demand current Under voltage Phase unbalance voltage Over voltage



Maintenance – maintenance 1 tab (MAINTENANCE_1)

(1) N_SC_TRP (2) N_OVL_TRP (3) N_EF_TRP (4) S_I2T_L2 (5) S_I2T_N (6) RD_DR91 (7) OP_HOURS (8) N_ACT_CC (9) S_I2T_L3 (10) S_I2T_L1 (11) N_ACT_TRP (12) N_ACT_LD (13) MAINT_MC

Figure 3-12 Faceplate for maintenance view, maintenance 1 tab


following Y-link MAINT_MC Maintenance information on the main contacts No N_ACT_LD Number of switches under load No N_ACT_TRP Number of switches caused by trips No N_SC_TRP Number of short-circuit releases (SI) No N_OVL_TRP Number of overload trips (L) No N_EF_TRP Number of ground-fault trips (G) No S_I2T_L1 Total of deactivated I2t values L1 No S_I2T_L2 Total of deactivated I2t values L2 No




S_I2T_L3 Total of deactivated I2t values L3 No S_I2T_N Total of deactivated I2t values N No N_ACT_CC Switching cycle counter (for On / Off switching cycle) No OP_HOURS Operating hours counter (when On + current > 0) No RD_DR91 Read maintenance information (data record 91) No

Maintenance – maintenance 2 tab ((MAINTENANCE_2)

(1) RD_DR91 (2) CON_MOD



connected following Y-link CON_MOD Modules which are connected to the cubicle bus No RD_DR91 Read maintenance information (data record 91) No



Possible modules COM15 Trip unit ETU ZSI Module Config. dig. output module Dig. output module #2 Dig. input module #2 Breaker Status Sensor BSS Dig. output module #1 Dig. input module #1 BDA or BDA Plus Grafic display ETU76B Analog output module #2 Analog output module #1 Metering or Metering Plus

When the relevant bit is set, the corresponding text is displayed in the faceplate. Otherwise the field remains empty.



Maintenance – operation tab (MAINTENANCE_OP)

(1) MAINT (2) R_MAINT (3) ACK_TRIP (4) DEL_TRIP (5) R_VAL_MEM (6) R_TEMP

Figure 3-14 Faceplate for maintenance view, operation tab


connected following Y-link MAINT Maintenance mode active / inactive No R_MAINT Reset all maintenance information and counters which can be

reset No

ACK_TRIP A tripping operation currently active is acknowledged and reset

No

DEL_TRIP Delete tripping and event log No R_VAL_MEM Reset all min./max. value memories

(apart from temperature) No

R_TEMP Reset minimum / maximum temperatures No



Protect. para – parameter set A tab (PARA_SET_A)

(1) I4T_OVLD_PROT_A (2) PH_L_SEN_A (3) THERM_MEM_A (4) I2T_D_STRIP_A (5) OV_LD_N_A (6) T_EFLT_A (7) T_EFLT2_A (8) RD_DR129 (9) I2T_EFLT_PROT_A (10) E_FLT_PROT2_A (11) E_FLT_PROT_A (12) IN_PRO_PARA_A (13) T_STRIP_A (14) SHORT_D_PROT_A (15) TL_CL_A (16) THERM_T_A (17) OV_LD_A

Figure 3-15 Faceplate for protect. para view, parameter set A




connected following Y-link OC_LD_A Overload parameter IR parameter set A (PS A) No THERM_T_A Cooling time constant PS A No TL_CL_A Time-lag class tR PS A No SHORT_D_PROT_A Short-circuit protection delayed Isd PS A No T_STRIP_A Delay time for short-circuit protection tsd PS A No IN_PRO_PARA_A Short-circuit protection instantaneous Isd PS A No E_FLT_PROT_A Ground-fault protection Ig1 PS A No E_FLT_PROT2_A Ground-fault protection Ig2 PS A No I2T_EFLT_PROT_A I2t characteristic for ground-fault protection PS A No I4T_OVLD_PROT_A I4t characteristic for overload protection PS A No PH_L_SEN_A Phase loss sensitivity PS A No THERM_MEM_A Thermal memory PS A No I2T_D_STRIP_A I2t characteristic for delayed ground-fault protection PS A No OV_LD_N_A Overload protection neutral conductor IN PS A (WL) No T_EFLT_A Delay time for ground fault tg1 PS A No T_EFLT2_A Delay time for ground fault tg2 PS A No RD_DR129 Read protect. para (data record 129) No



Protect. para – parameter set B tab (PARA_SET_B)

(1) I4T_OVLD_PROT_B (2) PH_L_SEN_B (3) THERM_MEM_B (4) I2T_D_STRIP_B (5) OV_LD_N_B (6) T_EFLT_B (7) T_EFLT2_B (8) RD_DR129 (9) I2T_EFLT_PROT_B (10) E_FLT_PROT2_B (11) E_FLT_PROT_B (12) IN_PRO_PARA_B (13) T_STRIP_B (14) SHORT_D_PROT_B (15) TL_CL_B (16) THERM_T_B (17) OV_LD_B

Figure 3-16 Faceplate for protect. para view, parameter set B




connected following Y-link OC_LD_B Overload parameter IR parameter set B (PS B) No THERM_T_B Cooling time constant PS B No TL_CL_B Time-lag class tR PS B No SHORT_D_PROT_B Short-circuit protection delayed Isd PS B No T_STRIP_B Delay time for short-circuit protection tsd PS B No IN_PRO_PARA_B Short-circuit protection instantaneous Isd PS B No E_FLT_PROT_B Ground-fault protection Ig1 PS B No E_FLT_PROT2_B Ground-fault protection Ig2 PS B No I2T_EFLT_PROT_B I2t characteristic for ground-fault protection PS B No I4T_OVLD_PROT_B I4t characteristic for overload protection PS B No PH_L_SEN_B Phase loss sensitivity PS B No THERM_MEM_B Thermal memory PS B No I2T_D_STRIP_B I2t characteristic for delayed ground-fault protection PS B No OV_LD_N_B Overload protection neutral conductor IN PS B (WL) No T_EFLT_B Delay time for ground fault tg1 PS B No T_EFLT2_B Delay time for ground fault tg2 PS B No RD_DR129 Read protect. para (data record 129) No



Protect. para – additional tab (PROTPARA_ADD)

(1) ACT_PARA (2) EARTH_FLT_CUR (3) LD_SHED (4) LD_REST (5) T_SHED_REST (6) RD_DR129 (7) RD_DR69 (8) STOFF_GFON (9) STON_GFOFF

Figure 3-17 Faceplate for protect. para view, additional tab


connected following Y-link ACT_PARA Active parameter set No LD_SHED Load shedding warning No LD_REST Load restorage No T_SHED_REST Delay time for load shedding / restorage No EARTH_FLT_CUR Type of ground fault detection No STON_GFOFF ZSI short-circuit No STOFF_GFON ZSI ground fault No RD_DR69 Read ZSI parameter (data record 69) No RD_DR129 Read protect. para (data record 129) No



Ext. protect. para – current tab (EXTPROTPARA_CUR)

(1) T_PH_U_CUR (2) T_THD_CUR (3) CUR_TRNS_LIM (4) RD_DR128 (5) THD_CUR (6) PH_UNBL_CUR

Figure 3-18 Faceplate for ext. protect. para view, current tab


connected following Y-link PH_UNBL_CUR Current unbalance No THD_CUR THD of current No T_PH_U_CUR Delay time for current unbalance No T_THD_CUR Delay time of THD of current No RD_DR128 Read ext. protect. para (data record 128) No CUR_TRNS_LIM Lower limit of current transfer No



Ext. protect. para – voltage tab (EXTPROTPARA_VOLT)

(1) T_PH_U_V (2) T_UN_VOLT (3) T_OV_VOLT (4) RD_DR128 (5) PH_ROT (6) OVER_VOLT (7) UNDER_VOLT (8) PH_UNBAL_VOLT

Figure 3-19 Faceplate for ext. protect. para view, voltage tab


connected following Y-link PH_UNBAL_VOLT Voltage unbalance No UNDER_VOLT Under voltage No OVER_VOLT Over voltage No PH_ROT Phase direction of rotation No T_PH_U_V Delay time for voltage unbalance No T_UN_VOLT Delay time for under voltage No T_OV_VOLT Delay time for over voltage No RD_DR128 Read ext. protect. para (data record 128) No



Ext. protect. para – active power tab (EXTPROTPARA_ACT_POW)

(1) T_RP_NORM (2) T_RP_REV (3) RD_DR128 (4) RP_REV (5) RP_NORM

Figure 3-20 Faceplate for ext. protect. para view, reactive power tab


following Y-link RP_NORM Real power in normal direction No RP_REV Real power in reverse direction No T_RP_NORM Delay time for active power in normal direction No T_RP_REV Delay time for active power in reverse direction No RD_DR128 Read ext. protect. para (data record 128) No



Ext. protect. para – frequency tab (EXTPROTPARA_FREQ)

(1) T_UN_FRQ (2) T_OV_FRQ (3) RD_DR128 (4) OV_FRQ (5) UNDER_FRQ

Figure 3-21 Faceplate for ext. protect. para view, frequency tab


following Y-link UNDER_FRQ Under frequency No OV_FRQ Over frequency No T_UN_FRQ Delay time for under frequency No T_OV_FRQ Delay time for over frequency No RD_DR128 Read ext. protect. para (data record 128) No



Setpoints – current tab (SETPOINTS_CUR)

(1) T_CUR_OVER_I (2) T_CUR_GRD_I (3) T_CUR_N_I (4) T_UNBAL_CUR_I (5) T_CUR_DEM_I (6) T_CUR_THD_I (7) WR_DR130 (8) RD_DR130 (9) CUR_THD_I (10) CUR_DEM_I (11) UNBAL_CUR_I (12) CUR_N_I (13) CUR_GRD_I (14) CUR_OVER_I

Figure 3-22 Faceplate for setpoints view, current tab


connected following Y-link CUR_OVER_I Over current No CUR_GRD_I Current which flows to earth No CUR_N_I Over current in neutral conductor No UNBAL_CUR_I Phase unbalance current No CUR_DEM_I Demand of current No CUR_THD_I THD current No T_CUR_OVER_I Delay time for over current No




T_CUR_GRD_I Delay time of current which flows to earth No T_CUR_N_I Delay time for over current in neutral conductor No T_UNBAL_CUR_I Delay time for phase imbalance Current No T_CUR_DEM_I Delay time for demand of current No T_CUR_THD_I Delay time for THD current No RD_DR128 Read setpoints (data record 130) No WR_DR128 Write setpoints (data record 130) No

Setpoints – voltage tab (SETPOINTS_VOLT)

(1) T_UNDER_VOLT_I (2) T_OVER_VOLT_I (3) T_UNBAL_VOLT_I (4) T_VOLT_THD_I (5) T_CREST_F_I (6) T_FORM_F_I (7) WR_DR130 (8) RD_DR130 (9) FORM_F_I (10) CREST_F_I (11) VOLT_THD_I (12) UNBAL_VOLT_I (13) OVER_VOLT_I (14) UNDER_VOLT_I

Figure 3-23 Faceplate for setpoints view, voltage tab




connected following Y-link UNDER_VOLT_I Under voltage No OVER_VOLT_I Over voltage No UNBAL_VOLT_I Phase unbalance voltage No VOLT_THD_I THD voltage No CREST_F_I Crest factor No FORM_F_I Form factor No T_UNDER_VOLT_I Delay time for under voltage No T_OVER_VOLT_I Delay time for over voltage No T_UNBAL_VOLT_I Delay time for phase imbalance Voltage No T_VOLT_THD_I Delay time for THD voltage No T_CREST_F_I Delay time for crest factor No T_FORM_F_I Delay time for the form factor No RD_DR128 Read setpoints (data record 130) No WR_DR128 Write setpoints (data record 130) No

Setpoints – frequency tab (SETPOINTS_FREQ)

(1) T_UNDER_FRQ_I (2) T_OVER_FRQ_I (3) WR_DR130 (4) RD_DR130 (5) OVER_FRQ_I (6) UNDER_FRQ_I

Figure 3-24 Faceplate for setpoints view, frequency tab




connected following Y-link UNDER_FRQ_I Under frequency No OVER_FRQ_I Over frequency No T_UNDER_FRQ_I Delay time for under frequency No T_OVER_FRQ_I Delay time for over frequency No RD_DR128 Read setpoints (data record 130) No WR_DR128 Write setpoints (data record 130) No

Setpoints – active power tab (SETPOINTS_ACT_POW)

(1) T_RP_NORM_I (2) T_RP_REV_I (3) T_PF_CAP_I (4) T_PF_IND_I (5) T_RP_DEM_I (6) WR_DR130 (7) RD_DR130 (8) RP_DEM_I (9) PF_IND_I (10) PF_CAP_I (11) RP_REV_I (12) RP_NORM_I

Figure 3-25 Faceplate for setpoints view, active power tab




following Y-link RP_NORM_I Real power in normal direction No RP_REV_I Real power in reverse direction No PF_CAP_I Power factor, capacitive No PF_IND_I Power factor, inductive No RP_DEM_I Demand real power No T_RP_NORM_I Delay time for active power in normal direction No T_RP_REV_I Delay time for active power in reverse direction No T_PF_CAP_I Delay time for power factor, capacitive No T_PF_IND_I Delay time for power factor, inductive No T_RP_DEM_I Delay time for demand of active power No RD_DR128 Read setpoints (data record 130) No WR_DR128 Write setpoints (data record 130) No



Setpoints – apparent/reactive power tab (SETPOINTS_APP_REACT_POW)

(1) T_AP_I (2) T_RAP_NORM_I (3) T_RAP_REV_I (4) T_AP_DEM_I (5) T_RAP_DEM_I (6) WR_DR130 (7) RD_DR130 (8) RAP_DEM_I (9) AP_DEM_I (10) RAP_REV_I (11) RAP_NORM_I (12) AP_I

Figure 3-26 Faceplate for setpoints view, apparent/reactive power tab


connected following Y-link AP_I Apparent power No RAP_NORM_I Reactive power in normal direction No RAP_REV_I Reactive power in reverse direction No AP_DEM_I Demand apparent power No RAP_DEM_I Demand reactive power No T_AP_I Delay time for apparent power No T_RAP_NORM_I Delay time for reactive power in normal direction No T_RAP_REV_I Delay time for reactive power in reverse direction No T_AP_DEM_I Delay time for demand of apparent power No

Description of blocks 3.3 Driver module DRV_3VL



T_RAP_DEM_I Delay time for demand of reactive power No RD_DR128 Read setpoints (data record 130) No WR_DR128 Write setpoints (data record 130) No

Message suppression

(1) SUP_LD_SHED (2) SUP_WRN (3) SUP_SP_EXCEED (4) SUP_OVLD_WRN

Figure 3-27 Faceplate for message suppression view


connected following Y-link SUP_OVLD_WRN Message ("Overload warning present") is not output Yes SUP_SP_EXCEED Message ("An active setpoint has been exceeded") is not

output Yes

SUP_WRN Message ("There is currently a warning message present") is not output

Yes

SUP_LD_SHED Message ("Load shedding warning") is not output Yes

3.3 Driver module DRV_3VL FB1740



Description of block: ● Calling OBs (Page 96) ● Called blocks (Page 96) ● Function (Page 96) ● Message behavior (Page 99) ● Assignment of the cyclic process image (Page 100) ● Addressing and module driver (Page 101) ● Processing the diagnostics data of the 3VL device (Page 102) ● Start-up characteristics (Page 102) ● Block parameters (Page 102) ● Description of symbols and faceplates (Page 111)

See also Diagnostics block DIA_WLVL (Page 17) Driver module DRV_3WL (Page 22)

3.3.1 Calling OBs The OB watchdog interrupt in which the block is installed (e.g. OB32). Also in OB100 (performed automatically in CFC, see start-up characteristics).

3.3.2 Called blocks The block calls the following blocks: SFB35 ALARM_8P SFB52 RDREC SFB53 WRREC SFC1 READ_CLK SFC6 RD_SINFO SFC20 BLKMOV SFC21 FILL

3.3.3 Function The DRV_3VL block is used for measurement acquisition and control and it forms the interface to the OS.



Automatic / manual mode switch over Automatic and manual mode are available for operating the driver block. When in manual mode, the user can control the circuit breaker position (ON / OFF) of the faceplate in WinCC. When in automatic mode, the corresponding buttons are locked (cannot be operated) in the faceplate and the circuit breaker is controlled by input parameters which can be connected in the CFC (AUTO_ON / AUTO_OFF) and therefore by the AS program.

NOTICE If an error occurs (monitoring error, Local turn off, Tripped) the block changes to Forced manual. If the pending error state is acknowledged with one of the RESET buttons, the block goes into the specified mode again. If Automatic mode is specified by the AS program (LIOP_SEL = 1, AUT_L = 1) the commands present at AUTO_ON or AUTO_OFF are always output. Under certain circumstances this means that resetting error states may cause a switching operation of the circuit breaker. If this is not desired the user must configure the AS program accordingly.

Switching the circuit breaker on/off The user can use the driver block to switch the circuit breaker. It is important to note here that the ON state means "main contacts closed" and the OFF state means "main contacts open". The circuit breaker cannot be switched on or off in certain states: It must not be switched on when: • there is a monitoring error (QMON_ERR = 1) • the block is in maintenance mode (MAINT = 1) • write protection applies (QWR_PROT = 1) • the circuit breaker is already on (QON = 1) • the circuit breaker has tripped (QTRIP = 1) • the circuit breaker has been switched off locally (QLOC_OFF = 1)

It must not be switched off when: • there is a monitoring error (QMON_ERR = 1) • the block is in maintenance mode (MAINT = 1) • write protection applies (QWR_PROT = 1) • the circuit breaker is already off (QOFF = 1) • the circuit breaker has tripped (QTRIP = 1) • the circuit breaker has been switched off locally (QLOC_OFF = 1)



Resetting Tripped and Local turn off states If the block is in one of the two states, it has to be reset before an On command can be output again. The faceplate features a corresponding button for the user for this RESET.

CAUTION Before the circuit breaker is switched back on, the reason for tripping/switching off must be established and possible error causes must be rectified.

NOTICE If such a state is reset the response of the mode must be observed as it may cause a switching operation of the circuit breaker under certain circumstances. See Automatic / Manual mode switchover

Feedback monitoring When monitoring is activated (MONITOR = On), switching commands (ON / OFF) and the resetting of trips are time monitored. If the expected state is not reached after an operation and within the monitoring time (TIME_MON), the block outputs a message and goes into a resetting state (QMON_ERR). The faceplate features an appropriate RESET button for resetting this state again.

NOTICE If the monitoring error is reset the response of the mode must be observed as it may cause a switching operation of the circuit breaker under certain circumstances. See Automatic / Manual mode switchover

Measured value acquisition The block reads measured values from the cyclic process image. When operating 3VL on the DP master system directly, the block also reads data record 94 with the system function block RDREC (SFB52). The data record is read in a defined cycle. The interval at which the data record can be read can be set in seconds using the input parameter CYCLE_T. The default setting is 60 seconds. A cycle of 0 seconds or less means that this data record is not read.

Time synchronization Data record 68 writes the current time in cycles in order to transfer the current time to the circuit breaker. This cycle can be set in seconds using the TIME_SYNC_T parameter.



Diagnostics and maintenance In order to display the current state of the circuit breaker, modules present, statistics information and diagnostic messages, the module reads the status word from the process image and data records 91 and 92. The process image is called in cycles. The user can request the data records in the faceplate via operations. The diagnostic messages are updated in cycles when messages are present.

WARNING During maintenance work on the circuit breaker, maintenance mode must be activated! At the same time, the circuit breaker must be locked locally to prevent it being switched back on. Maintenance specifications apply to the circuit breakers (in accordance with EN 50 110-1, DIN VDE 0105-100 and BGV A2).

Protect. parameter and extended protect. parameter This data, which comes from data records 128 and 129, is updated for the display in the faceplate if requested by the operator. These parameters cannot be written.

Setpoints These parameters can be read and written from the faceplate.

3.3.4 Message behavior DRV_3VL issues the following messages:

Message block Message

number Message text Message class

1 Overload tripping (L) AH 2 Instantaneous short-circuit (I) AH 3 Short-time-delay short-circuit (S) AH 4 Ground fault (G) AH 5 --- --- 6 Overload in neutral conductor AH 7 Overload warning present WH

MSG_EVID1

8 An activated setpoint value has been exceeded WH 1 An alarm signal is currently present WH 2 Error time synchronization WH 3 Local turn off of circuit breaker / tripped AH

MSG_EVID2

4 --- ---



Message block Message number

Message text Message class

5 Perform visual inspection on main contacts WH 6 Immediate maintenance of main contacts AH 7 Monitoring error AS Control System

Fault 8 Forbidden switching command for auto mode - switching command

ignored AS Control System Fault

Auxiliary values EV_ID Auxiliary value Block parameters

1 AUX_PR01 2 AUX_PR02 3 AUX_PR03 4 AUX_PR04 5 AUX_PR05 6 AUX_PR06 7 AUX_PR07 8 AUX_PR08 9 AUX_PR09

MSG_EVID1 -

MSG_EVID2

10 AUX_PR10

3.3.5 Assignment of the cyclic process image Only basic type 1 is supported.

NOTICE This allocation does not match the default allocation of basic type 1 for a VL device. Under certain circumstances, the allocation in the device therefore has to be adjusted. The bytes which deviate from the default allocation are shown in italics. The max. current in the phase with maximum load, which can be found at byte 8 / 9 by default, is calculated inside the block.

Name Inputs Outputs 0 / 1 Control bytes 2 0 / 1 Binary status information 2 2 / 3 Current in phase 1 2 4 / 5 Current in phase 2 2 6 / 7 Current in phase 3 2 8 / 9 Current in neutral conductor 2



Name Inputs Outputs 10 EB of current phase 1 1 11 EB of current phase 2 1 12 EB of current phase 3 1 13 EB of current in neutral conductor 1 Number of bytes 14 2

The user has to change the pre-assignment in the circuit-breaker as follows: Byte Name

(default allocation) Data point (default allocation)

Name (allocation needed)

Data point (allocation needed)

2 / 3 Current in phase 1 380 Current in phase 1 380 4 / 5 Current in phase 1 381 Current in phase 1 381 6 / 7 Current in phase 1 382 Current in phase 1 382 8 / 9 Max. current in phase

under highest load 374 Current in neutral conductor 375

If this adjustment isn't undertaken, the current in the neutral conductor is also shown in the faceplate for current in the neutral conductor.

3.3.6 Addressing and module driver The I/O addresses of 3VL must lie completely within the process image of the CPU. In the CFC chart, the LADDR input is connected to the base address of the 3VL device. Procedure: Select input parameter → right mouse button → Interconnection to address... → Entere.g. EW512 If 3VL is directly connected to the DP master system, the module driver connects block outputs OMODE, QRACKF and QMODF to inputs MODE00, RACKF and MODF of the block MOD_PAX0 and the module driver connects input DIAG_INF to output QDIAG_INF of diagnostics block DIA_WLVL. In the case of operation following a Y-Link DPV1, the module driver connects block inputs MODE, RACKF and DIAG_INF to outputs OMODE, QRACKF and QDIAG_INF of diagnostics block DIA_WLVL. In the case of operation following a Y-link DPV0, the module driver connects block inputs MODE and RACKF to outputs OMODE00 and QRACKF of diagnostics block PADP_L00. The block input BASADR is parameterized with the logical base address of the 3VL device by the module driver. The block input BASADR_OUT is parameterized with the start address of the outputs of the 3VL device by the module driver. The input DPA_LINK is parameterized with the connection mode of the 3VL device by the module driver. ● DPA_LINK = 0 → Directly connected to the DP master ● DPA_LINK = 1 → Connected following a DP/PA link



3.3.7 Processing the diagnostics data of the 3VL device If 3VL is directly connected to the DP master system, the block processes the diagnostic information that is supplied to it from the DIA_WLVL diagnostics block via the input DIAG_INF. The user has the possibility of setting the cycle for cyclic reading of the diagnostics data record at the "DIAREQ_T" input. At DIAREQ_T = 0.0 minutes no cyclic reading takes place.

3.3.8 Start-up characteristics On starting, messages are deactivated (OB100).


I/O (parameter) Comment Data type Default Type OCM MODE Parameter OMODE of DIA_WLVL DWORD 0 I RACKF 1 = Rack failure BOOL FALSE I LADDR Base address of 3VL module WORD 0 I BASADR Base address of 3VL module INT 0 I BASADR_OUT Base address of 3VL module for outputs INT 0 I DPA_LINK Device connection: 0 = DP-MASTER,

1 = DP / PA-LINK BOOL FALSE I x

MSG_LOCK 1 = Messages locked BOOL FALSE I x RUNUPCYC Lag: Number of run up cycles INT 0 I SAMPLE_T Sample time [s] REAL 0.0 I CYCLE_T Cycle time of cyclic reading of DRs [s] REAL 60.0 I TIME_SYNC_T Cycle time of time synchronization [min] REAL 10.0 I DIAREQ_T Cycle time of reading diagnostic information

[min] BOOL FALSE O

MONITOR 1 = Monitoring activated BOOL TRUE I TIME_MON Monitoring time [s] REAL 10.0 I DIAG_INF Diagnostic info for driver WORD 0 I ALT_SYM 1 = Alternative symbols BOOL FALSE I MANOP_EN 1 = Operator may input MANUAL BOOL TRUE I AUTOP_EN 1 = Operator may input AUTO BOOL TRUE I LIOP_SEL 1 = Linking, 0 = Operator active BOOL FALSE I AUT_L Linkable Input for MANUAL / AUTO mode BOOL FALSE I AUTO_ON AUTOMode: Switch off (open the main

contacts) BOOL FALSE I

AUTO_OFF AUTOMode: Switch on (close the main contacts)

BOOL FALSE I



I/O (parameter) Comment Data type Default Type OCM MSG_EVID1 Message ID message block 1 DWORD 0 I MSG_EVID2 Message ID message block 2 DWORD 0 I SUP_OVLD_WRN 1 = Active message suppression BOOL FALSE I x SUP_SP_EXCEED 1 = Active message suppression BOOL FALSE I x SUP_WRN 1 = Active message suppression BOOL FALSE I x CUR_OVER_I DR 130: Over current REAL 0.0 I x CUR_OVER_I_QC Quality code of CUR_OVER_I BYTE 16#80 I CUR_OVER_I_OFF DR 130: Over current OFF BOOL FALSE I x CUR_OVER_I_NA DR 130: Over current not available BOOL TRUE I x CUR_GRD_I DR 130: Earth fault current REAL 0.0 I x CUR_GRD_I_QC Quality code of CUR_GRD_I BYTE 16#80 I CUR_GRD_I_OFF DR 130: Earth fault current OFF BOOL FALSE I x CUR_GRD_I_NA DR 130: Earth fault current not available BOOL TRUE I x CUR_N_I DR 130: Over current N-phase REAL 0.0 I x CUR_N_I_QC Quality code of CUR_N_I BYTE 16#80 I CUR_N_I_OFF DR 130: Over current N-phase OFF BOOL FALSE I x CUR_N_I_NA DR 130: Over current N-phase not available BOOL TRUE I x CUR_DEM_I DR 130: Demand of the current REAL 0.0 I x CUR_DEM_I_QC Quality code of CUR_DEM_I BYTE 16#80 I CUR_DEM_I_OFF DR 130: Demand of the current OFF BOOL FALSE I x CUR_DEM_I_NA DR 130: Demand of the current not available BOOL TRUE I x T_CUR_OVER_I DR 130: Delay time for over current REAL 0.0 I x T_CUR_OVER_I_QC Quality code of T_CUR_OVER_I BYTE 16#80 I T_CUR_OVER_I_OFF DR 130: Delay time for over current OFF BOOL FALSE I x T_CUR_OVER_I_NA DR 130: Delay time for over current not

available BOOL TRUE I x

T_CUR_GRD_I DR 130: Delay time for over current ground REAL 0.0 I x T_CUR_GRD_I_QC Quality code of T_CUR_GRD_I BYTE 16#80 I T_CUR_GRD_I_OFF DR 130: Delay time for over current ground

OFF BOOL FALSE I x

T_CUR_GRD_I_NA DR 130: Delay time for over current ground not available

BOOL TRUE I x

T_CUR_N_I DR 130: Delay time for over current N-phase REAL 0.0 I x T_CUR_N_I_QC Quality code of T_CUR_N_I BYTE 16#80 I T_CUR_N_I_OFF DR 130: Delay time for over current N-phase

OFF BOOL FALSE I x

T_CUR_N_I_NA DR 130: Delay time for over current N-phase not available

BOOL TRUE I x

UNBAL_CUR_I DR 130: Phase unbalance current REAL 0.0 I x UNBAL_CUR_I_QC Quality code of UNBAL_CUR_I BYTE 16#80 I UNBAL_CUR_I_OFF DR 130: Phase unbalance current OFF BOOL FALSE I x UNBAL_CUR_I_NA DR 130: Phase unbalance current not

available BOOL TRUE I x



I/O (parameter) Comment Data type Default Type OCM T_UNBAL_CUR_I DR 130: Delay time for phase unbalance

current REAL 0.0 I x

T_UNBAL_CUR_I_QC Quality code of T_UNBAL_CUR_I BYTE 16#80 I T_UNBAL_CUR_I_OFF DR 130: Delay time for phase unbalance


T_UNBAL_CUR_I_NA DR 130: Delay time for phase unbalance current not available

BOOL TRUE I x

T_CUR_DEM_I DR 130: Delay time for demand of the current

REAL 0.0 I x

T_CUR_DEM_I_QC Quality code of T_CUR_DEM_I BYTE 16#80 I T_CUR_DEM_I_OFF DR 130: Delay time for demand of the


T_CUR_DEM_I_NA DR 130: Delay time for demand of the current not available

BOOL TRUE I x

RD_DR69 Read data record 69 (status of the modules) BOOL FALSE IO x RD_DR91 Read data record 91 (statistic and

maintenance) BOOL FALSE IO x

RD_DR92 Read data record 92 (diagnostics) BOOL FALSE IO x RD_DR128 Read data record 128 (metering and ext.

protective function) BOOL FALSE IO x

RD_DR129 Read data record 129 (protective function) BOOL FALSE IO x RD_DR130 Read data record 130 (setpoints) BOOL FALSE IO x WR_DR130 Write data record 130 (setpoints) BOOL FALSE IO x AUT_ON_OP Operator input: Mode 1 = AUTO,

0 = MANUAL BOOL FALSE IO x

AUX_PR01 Auxiliary value 01 ANY IO AUX_PR02 Auxiliary value 02 ANY IO AUX_PR03 Auxiliary value 03 ANY IO AUX_PR04 Auxiliary value 04 ANY IO AUX_PR05 Auxiliary value 05 ANY IO AUX_PR06 Auxiliary value 06 ANY IO AUX_PR07 Auxiliary value 07 ANY IO AUX_PR08 Auxiliary value 08 ANY IO AUX_PR09 Auxiliary value 09 ANY IO AUX_PR10 Auxiliary value 10 ANY IO MAN_OFF Operator input: Switch off (open the main

contacts) BOOL FALSE IO x

MAN_ON Operator input: Switch on (close the main contacts)

BOOL FALSE IO x

RESET Operator input trip reset BOOL FALSE IO x RES_MONERR Operator input reset monitoring error BOOL FALSE IO x ACK_TRIP A current trip is acknowledged and reset BOOL FALSE IO x DEL_TRIP Delete trip and event log BOOL FALSE IO x R_VAL_MEM Reset all min./max. value memories (except

temperatures) BOOL FALSE IO x



I/O (parameter) Comment Data type Default Type OCM R_MAINT Reset all resettable maintenance information

and counters BOOL FALSE IO x

MAINT 1 = Maintenance mode BOOL FALSE IO x QERR 1 = Error BOOL FALSE O x QMON_ERR 1 = Monitoring error BOOL FALSE O x QBAD 1 = Bad process value BOOL FALSE O x QMSG_SUP 1 = Message suppression active BOOL FALSE O x QMSG_ERR 1 = Message error BOOL FALSE O QDIAG_REQ 1 = Read diagnostic information BOOL FALSE O QMANOP 1 = Operator enabled for MANUAL BOOL FALSE O x QAUTOP 1 = Operator enabled for AUTO BOOL FALSE O x QOFF_OP 1 = Operator enabled for "OFF" BOOL FALSE O x QON_OP 1 = Operator enabled for "ON" BOOL FALSE O x QRES_OP 1 = Operator enabled for "RESET" BOOL FALSE O x QDR_OP 1 = Operator enabled for data record actions BOOL FALSE O x QOP_ERR 1 = Operator error BOOL FALSE O QMAN_AUT 1 = AUTO, 0 = MANUAL mode BOOL FALSE O x MSG_STAT1 Message block 1: STATUS Output WORD 0 O MSG_STAT2 Message block 2: STATUS Output WORD 0 O MSG_ACK1 Message block 1: ACK_STATE Output WORD 0 O MSG_ACK2 Message block 2: ACK_STATE Output WORD 0 O QERR_WR 1 = An error occurred during writing DRs BOOL FALSE O QERR_RD 1 = An error occurred during reading DRs BOOL FALSE O QWR_STAT Status of DR writing WORD 0 O QRD_STAT Status of DR reading WORD 0 O STATUS Binary status information WORD 0 O STATUS_QC Quality code of STATUS BYTE 16#80 O CUR_L1 Current in phase 1 REAL 0.0 O x CUR_L1_QC Quality code of CUR_L1 BYTE 16#80 O CUR_L2 Current in phase 2 REAL 0.0 O x CUR_L2_QC Quality code of CUR_L2 BYTE 16#80 O CUR_L3 Current in phase 3 REAL 0.0 O x CUR_L3_QC Quality code of CUR_L3 BYTE 16#80 O CUR_MAX Current max. L1, L2, L3 REAL 0.0 O x CUR_MAX_QC Quality code of CUR_MAX BYTE 16#80 O CUR_N Current in phase N (trip unit) REAL 0.0 O x CUR_N_QC Quality code of CUR_N BYTE 16#80 O ST_CB Status of circuit breaker BYTE 0 O x QNOT_RDY 1 = Circuit breaker not ready BOOL FALSE O QOFF 1 = Main contacts disconnected BOOL FALSE O QON 1 = Main contacts closed BOOL FALSE O QTRIP 1 = Circuit breaker has tripped BOOL FALSE O



I/O (parameter) Comment Data type Default Type OCM QLOC_OFF 1 = Local turn off of circuit breaker BOOL FALSE O x QOVLD_WRN 1 = Overload warning present BOOL FALSE O QSP_EXCEED 1 = An activated setpoint value has been

exceeded BOOL FALSE O

QWRN 1 = A warning signal is currently present BOOL FALSE O QWR_PROT 1 = Write operations are prohibited BOOL FALSE O LST_TRIP Reason for last trip BYTE 0 O QTR_OVLD 1 = Overload tripping (L) BOOL FALSE O QTR_ISC 1 = Instantaneous short-circuit (I) BOOL FALSE O QTR_STD_C 1 = Short-time-delay short-circuit (S) BOOL FALSE O QTR_GF 1 = Ground fault (G) BOOL FALSE O QTR_OVLD_N 1 = Overload in neutral conductor BOOL FALSE O E_TIME_SYC 1 = Error time synchronization BOOL FALSE O STON_GFOFF Short time on / Ground fault off BOOL FALSE O x STON_GFOFF_QC Quality code of STON_GFOFF BYTE 16#80 O STON_GFOFF_NA Short time on / Ground fault off not available BOOL TRUE O x STOFF_GFON Short time off / Ground fault on BOOL FALSE O x STOFF_GFON_QC Quality code of STOFF_GFON BYTE 16#80 O STOFF_GFON_NA Short time off / Ground fault on not available BOOL TRUE O x N_ACT_LD DR 91: Number of switch actions under load WORD 0 O x N_ACT_LD_QC Quality code of N_ACT_LD BYTE 16#80 O N_ACT_LD_NA DR 91: Number of switch actions under load

not available BOOL TRUE O x

N_ACT_TRP DR 91: Number of switch actions caused by a trip

WORD 0 O x

N_ACT_TRP_QC Quality code of N_ACT_TRP BYTE 16#80 O N_ACT_TRP_NA DR 91: Number of switch actions caused by

a trip not available BOOL TRUE O x

N_SC_TRP DR 91: Number of short circuit trips (SI) WORD 0 O x N_SC_TRP_QC Quality code of N_SC_TRP BYTE 16#80 O N_SC_TRP_NA DR 91: Number of short circuit trips (SI) not

available BOOL TRUE O x

N_OVL_TRP DR 91: Number of overload trips (L) WORD 0 O x N_OVL_TRP_QC Quality code of N_OVL_TRP BYTE 16#80 O N_OVL_TRP_NA DR 91: Number of overload trips (L) not


N_EF_TRP DR 91: Number of earth fault trips (G) WORD 0 O x N_EF_TRP_QC Quality code of N_EF_TRP BYTE 16#80 O N_EF_TRP_NA DR 91: Number of earth fault trips (G) not


DIAG_WRN DR 92: Active warnings WORD 0 O DIAG_WRN_QC Quality code of DIAG_WRN BYTE 16#80 O WRN_NO1 Warning number 1 INT 0 O x WRN_NO2 Warning number 2 INT 0 O x



I/O (parameter) Comment Data type Default Type OCM WRN_NO3 Warning number 3 INT 0 O x WRN_NO4 Warning number 4 INT 0 O x WRN_NO5 Warning number 5 INT 0 O x WRN_NO6 Warning number 6 INT 0 O x WRN_NO7 Warning number 7 INT 0 O x WRN_NO8 Warning number 8 INT 0 O x CUR_UNBAL DR 94: Phase unbalanced current (in %) REAL 0.0 O x CUR_UNBAL_QC Quality code of CUR_UNBAL BYTE 16#80 O CUR_UNBAL_NA DR 94: Phase unbalanced current (in %) not


CUR_DEM3 DR 94: Demand current 3-phases REAL 0.0 O x CUR_DEM3_QC Quality code of CUR_DEM3 BYTE 16#80 O CUR_DEM3_NA DR 94: Demand current 3-phases not


CUR_DEM_L1 DR 94: Demand current L1 REAL 0.0 O x CUR_DEM_L1_QC Quality code of CUR_DEM_L1 BYTE 16#80 O CUR_DEM_L1_NA DR 94: Demand current L1 not available BOOL TRUE O x CUR_DEM_L2 DR 94: Demand current L2 REAL 0.0 O x CUR_DEM_L2_QC Quality code of CUR_DEM_L2 BYTE 16#80 O CUR_DEM_L2_NA DR 94: Demand current L2 not available BOOL TRUE O x CUR_DEM_L3 DR 94: Demand current L3 REAL 0.0 O x CUR_DEM_L3_QC Quality code of CUR_DEM_L3 BYTE 16#80 O CUR_DEM_L3_NA DR 94: Demand current L3 not available BOOL TRUE O x CUR_L1_DR94 DR 94: Current in phase 1 REAL 0.0 O x CUR_L1_DR94_QC Quality code of CUR_L1_DR94 BYTE 16#80 O CUR_L1_DR94_NA DR 94: Current in phase 1 not available BOOL TRUE O x CUR_L2_DR94 DR 94: Current in phase 2 REAL 0.0 O x CUR_L2_DR94_QC Quality code of CUR_L2_DR94 BYTE 16#80 O CUR_L2_DR94_NA DR 94: Current in phase 2 not available BOOL TRUE O x CUR_L3_DR94 DR 94: Current in phase 3 REAL 0.0 O x CUR_L3_DR94_QC Quality code of CUR_L3_DR94 BYTE 16#80 O CUR_L3_DR94_NA DR 94: Current in phase 3 not available BOOL TRUE O x CUR_DEM3PH DR 94: Current demand over three phases REAL 0.0 O x CUR_DEM3PH_QC Quality code of CUR_DEM3PH BYTE 16#80 O CUR_DEM3PH_NA DR 94: Current demand over three phases

not available BOOL TRUE O x

CUR_N_DR94 DR 94: Current N-phase REAL 0.0 O x CUR_N_DR94_QC Quality code of CUR_N_DR94 BYTE 16#80 O CUR_N_DR94_NA DR 94: Current N-phase not available BOOL TRUE O x CUR_EARTH_F DR 94: Earth fault current REAL 0.0 O x CUR_EARTH_F_QC Quality code of CUR_EARTH_F BYTE 16#80 O CUR_EARTH_F_NA DR 94: Earth fault current not available BOOL TRUE O x FRQ DR 94: Frequency REAL 0.0 O x



I/O (parameter) Comment Data type Default Type OCM FRQ_QC Quality code of FRQ BYTE 16#80 O FRQ_NA DR 94: Frequency not available BOOL TRUE O x PER_DEM DR 128: Length of period for demand

calculating REAL 0.0 O x

PER_DEM_QC Quality code of PER_DEM BYTE 16#80 O PER_DEM_OFF DR 128: Length of period for demand

calculating OFF BOOL FALSE O x

PER_DEM_NA DR 128: Length of period for demand calculating not available

BOOL TRUE O x

SUB_PER DR 128: No. of sub periods for calculating demands

REAL 0.0 O x

SUB_PER_QC Quality code of SUB_PER BYTE 16#80 O SUB_PER_OFF DR 128: No. of sub periods for calculating

demands OFF BOOL FALSE O x

SUB_PER_NA DR 128: No. of sub periods for calculating demands not available

BOOL TRUE O x

PH_UNBL_CUR DR 128: Phase unbalanced current REAL 0.0 O x PH_UNBL_CUR_QC Quality code of PH_UNBL_CUR BYTE 16#80 O PH_UNBL_CUR_OFF DR 128: Phase unbalanced current OFF BOOL FALSE O x PH_UNBL_CUR_NA DR 128: Phase unbalanced current not


PRE_A_OVLD DR 128: Prealarm overload REAL 0.0 O x PRE_A_OVLD_QC Quality code of PRE_A_OVLD BYTE 16#80 O PRE_A_OVLD_OFF DR 128: Prealarm overload OFF BOOL FALSE O x PRE_A_OVLD_NA DR 128: Prealarm overload not available BOOL TRUE O x OV_LD_A DR 129: Overload parameter IR parameter

set A (PS A) REAL 0.0 O x

OV_LD_A_QC Quality code of OV_LD_A BYTE 16#80 O OV_LD_A_OFF DR 129: Overload parameter IR parameter

set A (PS A) OFF BOOL FALSE O x

OV_LD_A_NA DR 129: Overload parameter IR parameter set A (PS A) not available

BOOL TRUE O x

OV_LD_N_A DR 129: Overload N-phase IN PS A (VL) REAL 0.0 O x OV_LD_N_A_QC Quality code of OV_LD_N_A BYTE 16#80 O OV_LD_N_A_OFF DR 129: Overload N-phase IN PS A (VL)

OFF BOOL FALSE O x

OV_LD_N_A_NA DR 129: Overload N-Phase IN PS A (VL) not available

BOOL TRUE O x

TL_CL_A DR 129: Time lag class tR PS A REAL 0.0 O x TL_CL_A_QC Quality code of TL_CL_A BYTE 16#80 O TL_CL_A_OFF DR 129: Time lag class tR PS A OFF BOOL FALSE O x TL_CL_A_NA DR 129: Time lag class tR PS A not available BOOL TRUE O x IN_PRO_PARA_A DR 129: Instantaneous protection parameter

li PS A REAL 0.0 O x

IN_PRO_PARA_A_QC Quality code of IN_PRO_PARA_A BYTE 16#80 O



I/O (parameter) Comment Data type Default Type OCM IN_PRO_PARA_A_OFF DR 129: Instantaneous protection parameter

li PS A OFF BOOL FALSE O x

IN_PRO_PARA_A_NA DR 129: Instantaneous protection parameter li PS A not available

BOOL TRUE O x

SHORT_D_PROT_A DR 129: Short time delayed prot. parameter lsd PS A

REAL 0.0 O x

SHORT_D_PROT_A_QC Quality code of SHORT_D_PROT_A BYTE 16#80 O SHORT_D_PROT_A_OFF DR 129: Short time delayed prot. parameter

lsd PS A OFF BOOL FALSE O x

SHORT_D_PROT_A_NA DR 129: Short time delayed prot. parameter lsd PS A not available

BOOL TRUE O x

T_STRIP_A DR 129: Delay time for S-trip tsd PS A REAL 0.0 O x T_STRIP_A_QC Quality code of T_STRIP_A BYTE 16#80 O T_STRIP_A_OFF DR 129: Delay time for S-trip tsd PS A OFF BOOL FALSE O x T_STRIP_A_NA DR 129: Delay time for S-trip tsd PS A not


E_FLT_PROT_A DR 129: Earth fault protection parameter lg1 PS A

REAL 0.0 O x

E_FLT_PROT_A_QC Quality code of E_FLT_PROT_A BYTE 16#80 O E_FLT_PROT_A_OFF DR 129: Earth fault protection parameter


E_FLT_PROT_A_NA DR 129: Earth fault protection parameter lg1 PS A not available

BOOL TRUE O x

T_EFLT_A DR 129: Delay time earth fault protection tg1 PS A

REAL 0.0 O x

T_EFLT_A_QC Quality code of T_EFLT_A BYTE 16#80 O T_EFLT_A_OFF DR 129: Delay time earth fault protection


T_EFLT_A_NA DR 129: Delay time earth fault protection tg1 PS A not available

BOOL TRUE O x

I2T_D_STRIP_A DR 129: I2t curve for delayed S-trip PS A BOOL FALSE O x I2T_D_STRIP_A_QC Quality code of I2T_D_STRIP_A BYTE 16#80 O I2T_D_STRIP_A_OFF DR 129: I2t curve for delayed S-

trip PS A OFF BOOL FALSE O x

I2T_D_STRIP_A_NA DR 129: I2t curve for delayed S-trip PS A not available

BOOL TRUE O x

I2T_EFLT_PROT_A DR 129: I2t curve for earth fault protection PS A

BOOL FALSE O x

I2T_EFLT_PROT_A_QC Quality code of I2T_EFLT_PROT_A BYTE 16#80 O I2T_EFLT_PROT_A_OFF DR 129: I2t curve for earth fault protection


I2T_EFLT_PROT_A_NA DR 129: I2t curve for earth fault protection PS A not available

BOOL TRUE O x

ZSS_ON DR 129: ZSI on / off BYTE 16#0 O x ZSS_ON_QC Quality code of ZSS_ON BYTE 16#80 O ZSS_ON_OFF DR 129: ZSI on / off OFF BOOL FALSE O x



I/O (parameter) Comment Data type Default Type OCM ZSS_ON_NA DR 129: ZSI on / off not available BOOL TRUE O x TRIP_CLASS DR 129: Trip class (only SENTRON VL

LCD ETU40M) REAL 0.0 O x

TRIP_CLASS_QC Quality code of TRIP_CLASS BYTE 16#80 O TRIP_CLASS_OFF DR 129: Trip class (only SENTRON VL

LCD ETU40M) OFF BOOL FALSE O x

TRIP_CLASS_NA DR 129: Trip class (only SENTRON VL LCD ETU40M) not available

BOOL TRUE O x

EARTH_FLT_CUR DR 129: Determination of earth fault current INT 0 O x EARTH_FLT_CUR_QC Quality code of EARTH_FLT_CUR BYTE 16#80 O EARTH_FLT_CUR_OFF DR 129: Determination of earth fault current

OFF BOOL FALSE O x

EARTH_FLT_CUR_NA DR 129: Determination of earth fault current not available

BOOL TRUE O x

CUR_OVER_O DR 130: Over current REAL 0.0 O CUR_OVER_O_QC Quality code of CUR_OVER_O BYTE 16#80 O CUR_GRD_O DR 130: Earth fault current REAL 0.0 O CUR_GRD_O_QC Quality code of CUR_GRD_O BYTE 16#80 O CUR_N_O DR 130: Over current N-phase REAL 0.0 O CUR_N_O_QC Quality code of CUR_N_O BYTE 16#80 O CUR_DEM_O DR 130: Demand of the current REAL 0.0 O CUR_DEM_O_QC Quality code of CUR_DEM_O BYTE 16#80 O T_CUR_OVER_O DR 130: Delay time for over current REAL 0.0 O T_CUR_OVER_O_QC Quality code of T_CUR_OVER_O BYTE 16#80 O T_CUR_GRD_O DR 130: Delay time for over current ground REAL 0.0 O T_CUR_GRD_O_QC Quality code of T_CUR_GRD_O BYTE 16#80 O T_CUR_N_O DR 130: Delay time for over current N-phase REAL 0.0 O T_CUR_N_O_QC Quality code of T_CUR_N_O BYTE 16#80 O UNBAL_CUR_O DR 130: Phase unbalance current REAL 0.0 O UNBAL_CUR_O_QC Quality code of UNBAL_CUR_O BYTE 16#80 O T_UNBAL_CUR_O DR 130: Delay time for phase unbalance

current REAL 0.0 O

T_UNBAL_CUR_O_QC Quality code of T_UNBAL_CUR_O BYTE 16#80 O T_CUR_DEM_O DR 130: Delay time for demand of the

current REAL 0.0 O

T_CUR_DEM_O_QC Quality code of T_CUR_DEM_O BYTE 16#80 O



3.3.10 Description of symbols and faceplates

Description of symbols and faceplates: ● Symbol with 1 measurement ● Faceplate ● Standard view ● Measurements view ● Diagnosis view ● Maintenance view, maintenance 1 tab ● Maintenance view, operation tab ● Protect. para view, protect. para tab ● Protect. para view, additional tab ● Ext. protect. para view ● Setpoints view ● Message suppression view

Block icon with 1 measurement

(1) MAX_CUR

Figure 3-28 Symbol with 1 measurement

Meaning of measurements Element (parameters) Meaning MAX_CUR Maximum phase current

Faceplate The faceplate available is described in this chapter. The following views are available: Standard Measurements Diagnosis Maintenance with the tabs Maintenance 1 MAINTENANCE_1



Operation MAINTENANCE_OP Protect. para with the tabs Protect. para PROTPARA Additional PROTPARA_ADD Ext. Prot. Para . Setpoints Msg. suppr. Alarm Trend Batch

The file name is composed as follows: @PG_DRV_3VL_"View".pdl The PCS 7 standard displays @PCS7_alarm.pdl and @PCS7_trend.pdl are used for the alarm and trend views. The structure of the individual views of faceplates is described below. The appearance of the faceplates differ depending on whether the 3VL is connected directly to the DP master system or whether it is connected following a Y-link. When the 3VL is connected following a Y-link, no data records can be read because the device following a Y-link switches to DPV0 mode. This explains why faceplate views which only contain values from data records are hidden. Values which are displayed despite this and come from data records are cross-faced with "---". These measured values are therefore not indicated in the faceplates. The faceplates in the figures below are shown for direct connection of 3VL to the DP master system.



Standard

(1) QMAN_AUT / AUT_ON_OP (2) MAN_OFF (3) MAN_ON (4) RESET (5) CUR_L1 (6) CUR_L2 (7) CUR_L3 (8) RES_MONERR (9) QMON_ERR (10) MAINT (11) QLOC_OFF / ST_CB (12) CUR_MAX (13) ST_CB

Figure 3-29 Faceplate for standard view

not ready OFF ON tripped Symbol for status



Element (parameters) Meaning Display when 3VL is

connected following Y-link ST_CB Status of circuit breaker (Not ready / OFF / ON / Tripped) Yes QLOC_OFF Local turn off of circuit breaker / tripped Yes CUR_MAX Current of phase with maximum load Yes MAINT Maintenance mode active / inactive Yes QMON_ERR Monitoring error active / inactive Yes QMAN_AUT / AUT_ON_OP Manual / automatic changeover Yes MAN_OFF Switch off circuit breaker operating command Yes MAN_ON Switch on circuit breaker operating command Yes RESET Reset "Tripped" or "Local turn off" status Yes CUR_L1 Current in phase L1 Yes CUR_L2 Current in phase L2 Yes CUR_L3 Current in phase L3 Yes RES_MONERR Reset monitoring error Yes



Measurements

(1) CUR_L2 (2) CUR_N (3) CUR_DEM_L2 (4) CUR_DEM3 (5) CUR_UNBAL (6) CUR_DEM3PH (7) CUR_EARTH_F (8) FRQ (9) CUR_DEM_L3 (10) CUR_DEM_L1 (11) CUR_L3 (12) CUR_L1

Figure 3-30 Faceplate for measurements view



Element (parameters) Meaning Display when 3VL is connected

following Y-link CUR_L1 Current in phase L1 Yes CUR_L2 Current in phase L2 Yes CUR_L3 Current in phase L3 Yes CUR_N Current in neutral conductor Yes CUR_DEM_L1 Demand for current L1 No CUR_DEM_L2 Demand for current L2 No CUR_DEM_L3 Demand for current L3 No CUR_DEM3 Demand for 3-phase current No CUR_UNBAL Phase unbalance current (as %) No CUR_DEM3PH Mean current value over the three phases No CUR_EARTH_F Current which flows to earth No FRQ Frequency No

Diagnosis

(1) WRN_NO1 (2) WRN_NO2 (3) WRN_NO3 (4) WRN_NO4 (5) WRN_NO5 (6) WRN_NO6 (7) WRN_NO7 (8) WRN_NO8

Figure 3-31 Faceplate for diagnosis view




following Y-link WRN_NO1 1st warning currently active No WRN_NO2 2nd warning currently active No WRN_NO3 3rd warning currently active No WRN_NO4 4th warning currently active No WRN_NO5 5th warning currently active No WRN_NO6 6th warning currently active No WRN_NO7 7th warning currently active No WRN_NO8 8th warning currently active No

Possible warnings Pretrip for L Overload Overload N-phase Load shedding warning Load restorage Phase unbalance current µP-Error Earth fault warning Over temperature



Maintenance – maintenance 1 tab (MAINTENANCE_1)

(1) N_ACT_LD (2) N_ACT_TRP (3) N_SC_TRP (4) N_OVL_TRP (5) N_EF_TRP (6) RD_DR91



following Y-link N_ACT_LD Number of switches under load No N_ACT_TRP Number of switches caused by trips No N_SC_TRP Number of short-circuit releases (SI) No N_OVL_TRP Number of overload trips (L) No N_EF_TRP Number of ground-fault trips (G) No RD_DR91 Read maintenance information (data record 91) No



Maintenance – operation tab (MAINTENANCE_OP)

(1) MAINT (2) R_MAINT (3) ACK_TRIP (4) DEL_TRIP (5) R_VAL_MEM

Figure 3-33 Faceplate for maintenance view, operation tab


following Y-link MAINT Maintenance mode active / inactive No R_MAINT Reset all maintenance information and counters which can be

reset No

ACK_TRIP A tripping operation currently active is acknowledged and reset

No

DEL_TRIP Delete tripping and event log No R_VAL_MEM Reset all min./max. value memories

(apart from temperature) No



Protect. para – protect. para tab (PROTPARA)

(1) TL_CL_A (2) I2T_D_STRIP_A (3) OV_LD_N_A (4) I2T_EFLT_PROT_A (5) RD_DR129 (6) T_EFLT_A (7) E_FLT_PROT_A (8) IN_PRO_PARA_A (9) T_STRIP_A (10) SHORT_D_PROT_A (11) OV_LD_A

Figure 3-34 Faceplate for protect. para view, protect. para tab


connected following Y-link OC_LD_A Overload parameter IR parameter set A (PS A) No TL_CL_A Time-lag class tR PS A No SHORT_D_PROT_A Short-circuit protection delayed Isd PS A No T_STRIP_A Delay time for short-circuit protection tsd PS A No IN_PRO_PARA_A Short-circuit protection instantaneous Isd PS A No E_FLT_PROT_A Ground-fault protection Ig1 PS A No I2T_EFLT_PROT_A I2t characteristic for ground-fault protection PS A No I2T_D_STRIP_A I2t characteristic for delayed ground-fault protection

PS A No

OV_LD_N_A Overload protection neutral conductor IN PS A (WL) No



Element (parameters) Meaning Display when 3VL is connected following Y-link

T_EFLT_A Delay time for ground fault tg1 PS A No RD_DR129 Read protect. para (data record 129) No

Protect. para – additional tab (PROTPARA_ADD)

(1) EARTH_FLT_CUR (2) RD_DR69 (3) RD_DR129 (4) STOFF_GFON (5) STON_GFOFF

Figure 3-35 Faceplate for protect. para view, additional tab


connected following Y-link EARTH_FLT_CUR Type of ground fault detection No STON_GFOFF ZSI short-circuit No STOFF_GFON ZSI ground fault No RD_DR69 Read ZSI parameter (data record 69) No RD_DR129 Read protect. para (data record 129) No



Ext. protect. para

(1) PH_UNBL_CUR (2) RD_DR128

Figure 3-36 Faceplate for ext. protect. para view


following Y-link PH_UNBL_CUR Current unbalance No RD_DR128 Read ext. protect. para (data record 128) No



Setpoints

(1) T_CUR_OVER_I (2) T_CUR_GRD_I (3) T_CUR_N_I (4) T_UNBAL_CUR_I (5) T_CUR_DEM_I (6) WR_DR130 (7) RD_DR130 (8) CUR_DEM_I (9) UNBAL_CUR_I (10) CUR_N_I (11) CUR_GRD_I (12) CUR_OVER_I

Figure 3-37 Faceplate for setpoints view


following Y-link CUR_OVER_I Over current No CUR_GRD_I Current which flows to earth No CUR_N_I Over current in neutral conductor No UNBAL_CUR_I Phase unbalance current No CUR_DEM_I Demand of current No T_CUR_OVER_I Delay time for over current No T_CUR_GRD_I Delay time of current which flows to earth No T_CUR_N_I Delay time for over current in neutral conductor No T_UNBAL_CUR_I Delay time for phase imbalance Current No



Element (parameters) Meaning Display when 3VL is connected following Y-link

T_CUR_DEM_I Delay time for demand of current No RD_DR128 Read setpoints (data record 130) No WR_DR128 Write setpoints (data record 130) No

Message suppression

(1) SUP_WRN (2) SUP_SP_EXCEED (3) SUP_OVLD_WRN

Figure 3-38 Faceplate for message suppression view


connected following Y-link SUP_OVLD_WRN Message ("Overload warning present") is not output Yes SUP_SP_EXCEED Message ("An active setpoint has been exceeded") is not

output Yes

SUP_WRN Message ("There is currently a warning message present") is not output

Yes


Configuration Manual 44.1 Interconnections on COM15 for 3WL

In order to undertake switching operations of the circuit breaker in the faceplates of the 3WL, the user must perform wiring on the COM15 module. This has to be done in order to forward commands to the corresponding hardware. The two circuits for the 24V DC voltage or other voltage levels only indicate complete removal and can be adapted to specific users.

Contact 1 / 2: Write protection is integrated in COM15 to interlock the switching operations of the circuit breaker. This protection does not permit commands which put switching operations at risk. Write protection on COM15 therefore has to be released via pin 2 in order to switch on or off. The simplest version is depicted and takes the form of a wire jumper between 1 and 2 without customer-specific release (in released representation).

Contact 4 / 5: These "User" contacts are used to control the magnets for the anti-pumping device and/or trip detection. (The circuit breaker should be fitted with the "Remote reset magnet for the display and reset button, including automatic resetting of the anti-pumping device")

Contact 6 / 7: The "Close" / "Motorized operating mechanism for spring energy store" contact is used to close the circuit breaker and controls the Y1 switch-on solenoids and the automatic charging of the circuit breaker. (The circuit breaker should be fitted with the "Manual operating mechanism with mechanical and electrical call, switch-on solenoid suitable for uninterrupted duty, 100 % ED")

Contact 8 / 9: The "Open" contact is used to switch off the circuit breaker and controls the F1 switch-off solenoid. (The circuit breaker should be fitted with the "Shunt release suited to uninterrupted duty, 100 % ED")



4.1.1 24V DC voltage

Figure 4-1 COM15 interconnection at 24V DC voltage



4.1.2 Other voltage levels

Figure 4-2 COM15 interconnection at other voltage levels

Configuration Manual 4.2 Interconnections on COM10 for 3VL


4.2 Interconnections on COM10 for 3VL

4.2.1 Connection for communication

Figure 4-3 Connection for communication

Configuration Manual 4.2 Interconnections on COM10 for 3VL


4.2.2 Connection for motorized operating mechanism

Figure 4-4 Connection for motorized operating mechanism

Configuration Manual 4.3 Connection on COM20 for 3VL


4.3 Connection on COM20 for 3VL

4.3.1 COM20 pin assignment The COM20 must be supplied with 24 V DC for operations and this must be supplied to the terminals A2 (ground) and A1 (+). This voltage is looped-through via the communication cable to the ETU (trip unit) of the 3VL circuit-breaker such that this is also operated when the main contacts are open. Without this supply the ETU would not be able to communicate diagnosis information, such as the reason for the last trip, if there were no self-supply. Unlike COM10, the auxiliary and alarm switches are not wired to the COM20, but directly to the ETU, and the communication status forwarded to COM20. The following diagram shows the principle of the connection between the COM20 and a SENTRON VL including the LEDs and the PROFIBUS write protection DPWriteEnable.

Figure 4-5 COM20 connection to SENTRON VL

Configuration Manual 4.3 Connection on COM20 for 3VL


4.3.2 Connecting the optional motorized operating mechanism to COM20 If the circuit-breaker is to be switched on or off via the bus, the electric motorized operating mechanism with spring energy store is needed.

Note The contact between WE and 24 V must be closed for the remote function! Without this wire jumper, the PROFIBUS-DP cannot be used to switch the SENTRON VL on or off.

More information on fitting the motorized operating mechanism can be found in the installation instructions for the motorized operating mechanism. Connection diagram for COM20 on motorized operating mechanism, SENTRON VL:

Motor COM20 Power supply DC AC L2– X20.1 GND N S2A X20.2 SEO (ON) S2B X20.3 SEO (OFF) L1+ X20.4 L1+ L+ L PE X20.5 PE PE

Configuration Manual 4.4 Configuring a measuring point


4.4 Configuring a measuring point

4.4.1 Creating the PLC program The driver block DRV_3WL is integrated into a CFC chart and the LADDR input is connected to the base address of the 3WL device. Procedure: Select input parameter

-> right mouse button

-> Interconnection to address...

-> Enter e.g. EW512.

Figure 4-6 Driver block in CFC chart (not connected)



Then the module driver automatically installs all required driver blocks and connects the driver block. The module driver can be called as described below. ● Select "Generate module drivers" function when compiling the CFC chart:

Figure 4-7 Compile program

● Or use Select chart folder -> right mouse button -> Generate module drivers…:

Figure 4-8 Generate module driver



→The driver block connected by the module driver is supplied as the result:

Figure 4-9 Driver block in CFC chart connected

The PLC program has now been created.



4.4.2 Connection to WinCC After the PLC program has been created, the driver block can be connected to WinCC. The block icon that is associated with the driver block is used for this purpose that is installed in a process display in the following manner. ● Select "Create / update block icons" function

– in property dialog of WinCC display "Select Derive block icons from Plant View" (as of PCS 7 V7.0 this tick is set automatically)

Figure 4-10 Basing the block icons on the plant hierarchy



– manually in SIMATIC Manager / Plant view via selection of technological folder, menu Plant hierarchy / Create / update block icons or

Figure 4-11 Creating block icons out of plant hierarchy

– Automatically create/update when compiling the OS

Figure 4-12 Create block icons when compiling OS



● Manually copy the user object from file @Template_SENTRON.pdl into the process display and run the Dynamic Wizard "Link picture with measuring point"

Figure 4-13 Link picture component with measuring point

The driver block is now fully integrated into WinCC.




Technical specifications 5

The following meanings apply:

Block type name The symbolic identifier in the library's icon table for the relevant FB. It must be unique to the project.

Object name Consists of the type of block (FB) and the number.

Block length in load/work memory Memory requirement of program code, once per block type.

Length of instance data in load/work memory Memory requirement of an instance DB.

Temporary memory The local data memory needed when calling the block in an execution level. This is limited depending on the CPU. If exceeded, you must check this in the CPU configuration and, if necessary, redistribute to OBs of the size actually needed.

Technical specifications


Called blocks The blocks stated here are used by the block in question and must be located in the user program. They are saved in the same library.

Block (type name) Number Block length in load/

work memory (bytes)Length of instance data in load/ work memory (bytes)

Temporary memory (bytes)

Called blocks

DRV_3WL 1741 65666 / 57090 5434 / 2372 92 SFB35 SFB52 SFB53 SFC1 SFC6 SFC20 SFC21

DRV_3VL 1740 23050 / 20014 2414 / 1172 94 SFB35 SFB52 SFB53 SFC1 SFC6 SFC20 SFC21

DIA_WLVL 1742 1824 / 1472 322 / 94 108 SFC6 SFC51


Technical support 6

Contact for technical problems and other questions If you require technical support or you have questions about the product, contact Technical Support.

Utility Address, number Phone +49 (0)180-50-50-222 Fax +49 (0)180-50-50-223 Internet (http://www.siemens.com/automation/service&support) Support request (www.siemens.com/lowvoltage/technical-assistance)

http://www.siemens.com/automation/service&support

www.siemens.com/lowvoltage/technical-assistance

Technical support


www.siemens.com/automation

Subject to change without prior noticeOrder No.: A5E02316914 © Siemens AG 2008

Siemens AGIndustry SectorPostfach 48 4890327 NÜRNBERGGERMANY

Service & Support

SENTRON www.siemens.com/sentron

Download catalogs and information material: www.siemens.com/lowvoltage/catalogs

Newsletter – always up to date: www.siemens.com/lowvoltage/newsletter

E-business in the A&D Mall: www.siemens.com/lowvoltage/mall

Online-Support: www.siemens.com/lowvoltage/support

Contact for all technical information: Technical Assistance Tel.: +49 (911) 895-5900 E-Mail: [email protected] www.siemens.com/lowvoltage/technical- assistance

http://www.siemens.com/sentron

http://www.siemens.com/lowvoltage/catalogs

http://www.siemens.com/lowvoltage/newsletter

http://www.siemens.com/lowvoltage/mall

http://www.siemens.com/lowvoltage/support

mailto:[email protected]

http://www.siemens.com/lowvoltage/technical-assistance

http://www.siemens.com/automation

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