F-PRO ProLogic,S-PRO, T-PRO, TESLA, TESLA Control Panel, Relay ... first time user and clarify the details of the equipment. ... 8 Overview 8.1 Introduction The F-PRO is a microprocessor-based

F235-8-17R1.00 F-PRO User Manual

F-PRO

Non-Directional Multifunction Protection Relay

User Manual

Variant – F-PRO 295 Version 1.1 Rev 0

F295-03-17R1.10 F-PRO User Manual

i F-PRO User Manual F295-03-17R1.10

1 Preface

Information in this document is subject to change without notice. © 2015 Easun Reyrolle Ltd. All rights reserved. Reproduction in any manner whatsoever without the written permission of Easun Reyrolle Ltd. is strictly forbidden.This manual is part of a complete set of product documentation that includes detailed drawings and operation. Users should evaluate the information in the context of the complete set of product documentation and their particular applications. ERL assumes no liability for any incidental, indirect or consequential damages arising from the use of this documentation.

While all information presented is believed to be reliable and in accordance with accepted engineering practices, ERL makes no warranties as to the completeness of the information. All trademarks used in association with B-PRO, F-PRO, iTMU, L-PRO, ProLogic,S-PRO, T-PRO, TESLA, TESLA Control Panel, Relay Control Panel, RecordGraph and RecordBase are trademarks of ERL PhasePower Technologies Ltd. Windows® is a registered trademark of the Microsoft Corporation. Modbus® is a registered trademark of Modicon.

2 Contact Information

Easun Reyrolle Ltd

Website: www.easunreyrolle.com

Email: [email protected]

Technical Support


Tel: +91-4344-401600/01/02

ERLPhase Power Technologies Ltd

Website: www.erlphase.com


Technical Support


Tel: 1-204-477-0591

F295-03-17R1.10 F-PRO User Manual ii

3 Using This Guide

This User Manual describes the installation and operation of the F-PRO Multifunction Protection Relay. It is intended to support the first time user and clarify the details of the equipment. The manual uses a number of conventions to denote special information:

Example Describes

Start>Settings>Control Panel Choose the Control Panel submenu in the Set - tings submenu on the Start menu.

Right-click Click the right mouse butt on.

Recordings Menu items and tabs are shown in italics.

Service User input or keystrokes are shown in bold.

Text boxes similar to this one Relate important notes and informa tion.

…. Indicates more screens.

Indicates further drop-down menu, click to display list.

Indicates a warning.

iii F-PRO User Manual F295-03-17R1.10

4 Table of Contents

1 Preface…………………………………………………………………….i

2 Contact Information……………………………………………………..i

3 Using this Guide…………………………………………………………ii

4 Table of Contents……………………………………………………….iii

5 Acronyms………………………………………………………………...v

6 Version Compatibility………………………………………………….vi

7 PC System Requirements and Software Installation……………...…vii

8 Overview………………………………….…………………………………..8-1

Introduction…………………………….……….……..…….…………..8-1

Front View…………………………………………….....……..…..…….8-3

Rear View………………………………………………………………...8-4

Model Options/Ordering………………………………………………..8-5

9 Setup and Communication……………………………………………….9-1

Introduction……………………………………………………………..9-1

Power Supply……….……………………………...……………………9-1

IRIG-B Time Input………………………………………………...……9-2

Communicating with Relay Intelligent Electronic Devices (IED)...…….9-3

USB Link………………………………………………………………..9-3

Network Link……………………………………………………………9-7

Accessing the Relay’s SCADA Services………………………………..9-7

Communication Port Details……………………………………………9-9

10 Using the IED (Getting Started)…………………………………….10-1

Introduction……………………………………………………………10-1

Interfacing with the Relay……………………………………………..10-1

Front Panel Display……………………………………………………10-1

Relay Control Panel…………………………………………………...10-21

11 Protection Functions Applications and Specifications……………11-1

Protection and Recording Functions………………………………….11-1

Recording Functions…………………………………………………11-25

Logging Functions……………………………………………………11-27

F295-03-17R1.10 F-PRO User Manual iv

12 Data Communication……………………………………………..………12-1

Introduction………………………………………………..…………./12-1

SCADA Protocol…………………………………………..…………..12-1

IEC 61850 Communication.………………………………………….12-3

13 Offliner Settings Software…………………………………………........13-1

Introduction…………………………………………………..……….13-1

Offliner Features……………………………………………………....13-2

Offliner Keyboard Shortcuts………………………………………….13-4

Handling Backward Compatibility…………………………………....13-5

Record Base View Software…………………………………………..13-7

Main Branches from the Tree View……………………………..…….13-8

Settings from a Record…………………………………………...….13-26

14 Installation…………………………………………….……….…………14-1

Introduction………………………………………………………..….14-1

Physical Mounting………………………………………………….…14-1

AC and DC Wiring………………………………………………….....14-1

Communication Wiring…………………………………………....….14-1

Appendix A IED Specifications…………….………………...…..…...A-1

Appendix B IED Settings and Ranges…………………………….…....B-1

Appendix C CT Requirements………………………………..………..C-1

Appendix D Event Messages…………………………………………...D-1

Appendix E Modbus RTU Communication Protocol………….…….....E-1

Appendix F IEC 103 Device Profile………………………………..…...F-1

Appendix G Mechanical Drawings…………………………………….G-1

Appendix H AC Schematic Drawings……………………………...….H-1

Appendix I DC Schematic Drawing……………………………………I-1

Appendix J Function Diagram…………………………………………J-1

Appendix K F-PRO Setting Example…………………………………K-1 Appendix L IEC 61850 Implementation……………………………..L-1 Data Mapping Specifications………………………………………… L-1

v F-PRO User Manual F295-03-17R1.10

5 Acronyms

ASG - Active Setting Group CID - file extension (.CID) for Configured IED Description CT - Current Transformer DCE - Data Communication Equipment DIB - Digital Input Board DIGIO - Digital Input/Output Board DSP - Digital signal processor DTE - Data Terminal Equipment FOCB - F-PRO Output Contact Board GPS - Global Positioning System HMI - Human Machine Interface ICD - file extension (.ICD) for IED Capability Description IEC - International Electrotechnical Commission IED - Intelligent Electronic Device IP - Internet Protocol (IP) address IRIG-B - Inter-Range Instrumentation Group time codes LED - Light-emitting Diode LCD - Liquid Crystal Display LHS - Left Hand Side MPB - Main Processor Board MPC - Micro Processor PLC - Programmable Logic Controller RHS - Right Hand Side RTOS - Real Time Operating System RTU - Remote Terminal Unit SCADA - Supervisory Control And Data Acquisition SG - Setting Group TCP - Transmission Control Protocol TUI - Terminal User Interface UDP - User Datagram Protocol UI - User Interface VI - Virtual Input

F295-03-17R1.10 F-PRO User Manual vi

6 Version compatibility

This chart indicates the versions of Offliner Settings, Record Base View and the User Manual which are compatible with different versions of F-PRO firmware. Record Base View and Offliner Settings are backward compatible with all earlier versions of records and setting files. Use Record Base View to view records produced by any version of F-PRO firmware and Offliner Settings can create and edit older setting file versions.

.

Please contact ERL Customer Service for complete Revision History.

F-PRO Firmware/Software Compatibility Guide

F-PRO Firmware

Setting Version

Compatible Offliner Settings

Record Base View

RCP Version

ICD File Version

v1.0 1 v1.0 or greater V 1.0 V2.0 v1.0

vii F-PRO User Manual F295-03-17R1.10

7 PC System Requirements and Software Installation

Hardware The minimum hardware requirements are: • 1 GHz processor

• 1 GB RAM

• 20 GB available hard disk space

• USB port

• Serial communication port with RS485 to RS232 convertor

Operating System The following software must be installed and functional prior to installing the applications:

• Microsoft Windows XP Professional Service Pack 3 or

• Microsoft Windows 7 or higher versions

Relay Control Panel requires a minimum of Windows XP Professional Service Pack 3 (it will not work on earlier versions of Windows).

Software Installation The CD-ROM contains software and the User Manual for the F-PRO Multifunction Relay.

Software is installed directly from the CD-ROM to a Windows PC. Alternatively, create installation diskettes to install software on computers without a CD-ROM drive.

The CD-ROM contains the following:

• F-PRO Function Logic Diagram: Diagram in PDF format

• Relay Control Panel: Software

• Relay Control Panel User Manual: Manual in PDF format

• USB Gadget Driver

vii F-PRO User Manual F295-03-17R1.10

To Install Software on the Computer

Insert the CD-ROM in the drive. The CD-ROM should open automatically. If the CD-ROM does not open automatically, go to Windows Explorer and find the CD-ROM (usually on D drive).

To install the software on the computer, click the desired item on the screen. The installation program launches automatically. Installation may take a few minutes to start.

To view the F-PRO User Manual the user must have Adobe Acrobat on the computer. If a copy is needed, download a copy at www.adobe.com.

Anti-virus/Anti-spyware Software

If antivirus/anti-spyware software on your local system identifies any of the ERL applications as a “potential threat”, it will be necessary to configure your antivirus/anti-software to classify it as “safe” for its proper operation. Please refer the appropriate antivirus/anti-spyware software documentation to determine the relevant procedure.

8-1 F-PRO User Manual F295-03-17R1.10

8 Overview 8.1 Introduction The F-PRO is a microprocessor-based relay providing comprehensive

Directional Over current/Earth Fault protection, Auto Reclosing, Circuit Breaker Failure, Broken conductor, Thermal Overload, Negative Sequence Over current, Inrush Restraint, Trip Circuit Supervision, metering, breaker monitoring and recording functions suitable for transmission and distribution applications.

GUI software has two working modes—online and offline. In the online mode you can use communication software package Relay Control Panel. In online mode you can:

• Change and review relay settings

• View event, fault and metering information

• Initiate and retrieve recordings, and retrieve settings

In offline mode you can use Offliner Settings and Record Base View software to:

• Create and review relay settings

• Analyze fault waveforms

• Store records

In addition to the protection functions F-PRO provides fault recording (32 samples/cycle) to facilitate analysis of the power system after a disturbance has taken place. The triggers for fault recording are established by programming the output matrix and allowing any internal relay function or any external input to initiate recording.

The primary protection provided is overcurrent based. A library for these overcurrent functions provides commonly used IEEE and IEC inverse curves. Because the curves are equation-driven, you can choose to enter an equation parameter directly, creating other overcurrent shapes as needed

To provide a complete package of protection and control, F-PRO provides other functions such as:

• Breaker failure Protection (50BF)

• Multishot Auto Recloser (79)

• VT Fail Supervision (60VTS)

• CT Fail Supervision (60CTS)

• 20ProLogic statements are provided for User

• 4 Setting Groups.

F295-03-17R1.10 F-PRO User Manual 8-2

8.Overview

Relay Control Panel (RCP) is the Windows graphical user interface software tool provided with all 2000 and 4000 series and higher (new generation) ERL relays to communicate, retrieve and manage records, event logs, fault logs, manage settings (identification, protection, SCADA etc.,), display real time metering values, view, analyze, and export records in COMTRADE format.

Figure 8.1: F-PRO Relay Function Line Diagram

8.Overview


8.2 Front View

Figure 8.2: F-PRO Front View

Navigation controls allow for an easy experience through settings, maintenance, service and view menus.

Programmable target LED’s provide tripping information to expedite response to systems events.

Handle to draw out the relay from case

Unique front panel USB port provides easy and fast access to settings and set up

8.Overview


8.3 Rear View

Figure 8.3: F-PRO Rear View

Case Grounding

Rear Ethernet port ready for IEC61850 and Goose

RS-485 terminals for SCADA communication (Modbus and IEC103)

BNC Receptable IRIG-B Port for time sync

8.Overview


8.4 Model Options/Ordering

The relay is available as an E6 size and flush mount type, for

details see “Mechanical Drawings” in Appendix G.

The relay is available with an optional Ethernet port. The relay is

available with optional IRIG-B port

The external inputs are 24/30 or 48/50 or 110/125 or 220/250 volts

rated. The Auxiliary supply is 19-155 or 80-350 volts rated.

All of the above options must be specified at the time of ordering.

AC Current Inputs F-PRO is provided with terminal blocks for up to 4 AC currents and Separate 1 A and 5A terminals are provided with isolated neutral. A complete schematic of current circuit is shown, for details see “AC Schematic Drawing” in Appendix H and “DC Schematic Drawing” in Appendix I

External Inputs The F-PRO relay contains 4 programmable external inputs. External DC voltages of either 24/30 volts or 48/50 volts or 110/125 volts or 220/250 volts nominal are possible depending on the range provided in ordering code.

Relay Inoperative Alarm Output

If the relay becomes inoperative, then the Relay Inoperative Alarm output contact closes which is also configurable for 1 or 6 or both output contacts and all tripping functions are blocked

Output Relay Contacts

The F-PRO relay has 8 output relay contacts. Each contact is programmable and has breaker tripping capability. All output contacts are isolated from each other. All the contacts are provided with a minimum energizing delay of 100 milliseconds

8.Overview


Ordering options


9 Setup and Communications 9.1 Introduction This chapter discusses setting up and communicating with the relay

including the following:

• Power supply

• Inter-Range Instrumentation Group time codes (IRIG-B) time input

• Communicating with the relay using a network link and a direct serial link

• Using Relay Control Panel to access the relay’s user interface

• Accessing the relay’s Supervisory Control and Data Acquisition (SCADA) service

9.2 Power Supply Relay provided with two different range of power supplies

20 to 155V DC / 20 to 150V AC, 50/60 Hz 80 to 350V DC / 80 to 240 V AC, 50/60 Hz.

Ensure that, The chassis is grounded for proper operation and safety.

There are no power switches on the relay. When the power supply is connected, the relay starts its initialization process and takes about 70 Seconds to complete the boot and glowing the green LED for relay functional.

Case Grounding Ground the relay to station ground using the case-grounding terminal at the back of the relay, for details see for details see Figure 8.3: F-PRO Rear View on page 8.4

WARNING!

Ground the relay to station ground using the case-grounding terminal at the back of the relay, for details see Figure 8.3: F-PRO Rear View on page 8-4.

9. Setup and Communication


9.3 IRIG-B Time Input The relay is equipped to handle modulated or un-modulated GPS satellite time

IRIG-B signals. The IRIG-B time signal is connected to the BNC connection on the back of the relay. Setting is required to differentiate between modulated or un-modulated signal. This has to be manually changed by the user as per the input provided. When relay is draw out from its case, we can find jumpers behind the IRIG-B connector. If jumpers(J5, J6) position are shorting 1st and 2nd pin, then IRIG-B port input is configured to get modulated signal and the same jumpers(J5, J6) position are shorting 2nd and 3rd pin, then IRIG-B port input is configured to get unmodulated signal.

Figure 9.1: IRIG-B port for modulated and unmodulated input

Enable or disable the IEEE 1344 extension in the Relay Control Panel. The enabled mode allows the year to be received from the IRIG-B signal. If the available IRIG-B signal has no year extension, this setting should be disabled.



9.4 Communicating with the Relay Intelligent Electronic

Device Connect to the relay to access its user interface and supervisory control and data acquisition (SCADA) services by:

• Front USB 2.0 interface (user interface and maintenance)

• 1 Rear Ethernet network link (user interface and SCADA)

• Direct RS485 serial link to SCADA

The relay has a front panel USB port (Com Port 1) and 1 Rear Copper Ethernet Port (Com Port 3) for user interface and SCADA, 1 rear RS485 Port (Com Port2) to provide direct access to SCADA services.

The relay user interface is accessed through the Relay Control Panel.

9.5 USB Link

The PC must be appropriately configured for USB communication.

Com Port 1 - USB

Laptop PC

Figure 9.2 USB Link



USB Driver Installation

To create an USB link between the relay and the computer, first the USB driver for the ERL series device needs to be installed, as follows:

USB driver can be obtained from the package provided by ERL

In Windows XP or Windows 7

Connect a USB port of the PC to Port 1 (USB front) of the F-PRO . The F-PRO was already powered on. In the window

“Welcome to the Found New Hardware Wizard” “Can Windows connect to Windows Update to search for software?” Check the option “No, not this time”. Click Next. In the window

“This wizard helps you install software for:” “Gadget Serial” “What do you want the wizard to do?” Check the option “Install from a list or specific location (Advanced)”. Click Next In the window

“Please choose your search and installation options” Select “Don’t search. I will choose the driver to install” Click Finish. Window displays “Choose this option to select the device driver from a list. Windows does not guarantee that the driver you choose will be the best match for your hardware” Click Next



In the window

“Hardware Installation” “The software you are installing for this hardware” “F-Pro2000 Series Relay” “Has not passed Windows Logo testing to verify its compatibility with Windows XP” or “Windows can’t verify the publisher” Click Continue Anyway. In the window “Select the device driver you want to install for this hardware”, It displays “Select the manufacturer and model of your hardware device and then click Next. If you have a disk that contains the driver you want to install, Have Disk” Click “Have Disk…” In the window “Install from Disk” It says “Insert the manufacturer’s installation disk, and then make sure that the correct drive is selected below” Click Browse Choose the correct path of the drive Click Ok The appearing window “Found New Hardware Wizard” “Select the device driver you want to install for this hardware” It displays “Select the manufacturer and model of your hardware device and then Click Next. If you have a disk that contains the driver you want to install, click Have Disk” Choose “F-Pro2000 Series Relay” by clicking on it Click Next



The window “Hardware Installation” “The software you are installing for this hardware:” “F-Pro2000 Series Relay” has not passed Windows Logo testing to verify its compatibility with Windows XP. Hit Continue Anyway In the window

“Completing the Found New Hardware Wizard” “The wizard has finished installing the software for F-PRO 2000 Series Relay” Click Finish. To verify the installation was successful, and to which communication port is the F-Pro2000 Series Relay configured, do the following:

In Windows XP

Start > Control Panel>Performance and Maintenance>System >Hardware > Device Manager > Ports or (if using Control Panel’s Classic View)

Start > Control Panel > System > Hardware >Device Manager >Ports In Windows 7 ‘small icons’ view, go to

Start>Control Panel>Device Manager>Ports.

Look for the port number associated to this device.

“F-Pro2000 Series Relay” Look for COM #, where “#” can be 1, 2, 3, etc. Leave the default settings for this port. It is recommended to restart the PC after the USB driver installation.

The default baud rate for the relay USB Port com port 1 is 115200, however to double check it login to the relay display and go to:

Main Menu > System > Relay Communication Setup



Ethernet Switch

9.6 Network Link

Figure 9.3: Network Link

Access both the relay’s user interface and 61850 SCADA services simultaneously with the Ethernet TCP/IP LAN link through the network port Com Port 3. The rear Port 3 is 100BASE-T copper interface with an RJ-45 connector. 61850 SCADA services can also be accessed over the LAN, for details see “Communication Port Details” on page 9-9. Connect to the Ethernet LAN using a Cat 5 cable with an RJ-45 connector on both ends in straight fashion.

By default, the Com Port 3 is assigned with an IP address of 192.168.0.63 Port. If this address is not suitable, it may be modified using Relay interface ‘Change/Service’ access or through Relay Control Panel connected through USB.

PC With TCP/IP

Com port 3 RJ-45 Network



RS485

to

RS232

Converter Com Port 2 RS485

Accessing the Relay’s SCADA Service

The relay supports IEC 60870-5-103 slave and Modbus slave SCADA protocols as a standard feature on all F-PRO relays. The Modbus implementation supports both Remote Terminal Unit (RTU) binary and ASCII modes and is available through a direct RS485 serial link. The relay Port 2 is dedicated for use with Modbus slave or IEC 60870-5-103 slave serial protocols. Port 2 uses standard RS-485 signaling. An external RS-485<->RS-232 converter has be used to connect to an RS-232 network.

Figure 9.4: RS485 Connection diagram

Complete details on the Modbus and IEC 60870-5-103 protocol services can be found in the Appendices, for details see “Modbus RTU Communication Protocol” in Appendix E and “IEC 103 Device Profile” in Appendix F.

Protocol Selection

To select the desired SCADA protocol, go to F-PRO Offliner SCADA communication section. Select the protocol and set the corresponding parameters.

Communication parameters

Com Port 2 communication parameters are set in the F-PRO Offliner SCADA communication section. Both the baud rate and the parity bit can be configured. The number of data bits and stop bits are determined automatically by the selected SCADA protocol. Modbus ASCII uses 7 data bits. Modbus RTU and IEC 60870-5-103 Serial use 8 data bits. All protocols use 1 stop bit except in the case where either Modbus protocol is used with no parity; this uses 2 stop bits, as defined in the Modbus Standard.

IEDI1 IEDI 2 IEDI 3 PC with RS232



9.8 Communication Details

Table 9.1: Communication Port Details

Location Port Function

Front Panel Com-1 USB-B receptacle, High speed USB 2.0 interface Used for user interface access Default fixed baud rate 115,200 N81 (no parity, 8 data bits, 1 stop bit).

Rear Panel Com-2 RS-485. Used for SCADA communication (MODBUS or IEC103). Default Setting: 9600 baud N71 (no parity, 7 data bits, 1 stop bit)

Rear Panel Com-3 Rear panel, RJ-45 receptacle 100BASE-T Ethernet interface. With subnet as port 3. Used for user interface access or IEC61850 access through Ethernet LAN.

Rear panel IRIG-B BNC receptacle, IRIG-B Interface. Modulated or un-modulated, 200 ohm impedance.

Notes: Pins 25 and 27 are tied together internal to the relay with resistor.

Table 9.2: RS485 Connections to Pins on Relay Port

Signal Name Direction PC<-> Relay Pin # on the Relay Port

A+ 26

B- 27

Common 28


10 Using the IED (Getting Started)

10.1 Introduction

This section provides information on the start-up sequence and ways to interface with the relay. Descriptions of the Front Panel Display, Terminal Mode and Metering Data are provided.

10.2 Interfacing with the Relay

The following ways can be used to interface with the relay:

• Front panel display

• Relay Control Panel

10.3 Front Panel Display

The front panel display is the fastest and easiest way of getting information from the relay.

Figure10.1: Front Panel Display

The display, the 8 LED lights and the 5 push buttons, provide selective information about the relay.

Programmable target LEDs provide tripping information to expedite response to systems events. Unique front panel USB port provides easy and fast access to settings and set up

Navigation controls allow for an easy experience through settings, maintenance, service and view menus


10. Using the IED

LED Lights

Table 10.2: Description of LED Lights

Target LED Number

Description (Default Function Assigned)

2

SEF /REF Operated

3

UNDER VOLTAGE

4

OVER VOLTAGE

5

3Vo OVER VOLTAGE

6

OVER FLUX

7

UNDER/OVER FREQUENCY

8

ROCOF OPERATED

Target LED assignments are the default function but are configurable by the user through the Offliner settings (output matrix configuration LED Output). Push Buttons Table 10.3 Identification of Push Buttons Up Down, Cancel, Enter, Used to Navigate the front panel Escape or Target Reset LCD Screens

Table 10.1: Description of LED Lights

LED Number 1 for Relay Functional

Indicates the relay is functional. When the Relay Functional green LED goes on, the rear Relay Inoperative contact changes

to an open and the protective functions become functional.


10. Using the IED

Display The basic menu structure for navigation of the LCD screen is given below:

Table 10.4: Navigation of the LCD Screen

Main Screen View / Change / Service : Choice Menu

Enter Password

Main Menu (V,C,S) Configuration (V,C,S) System Parameters (V,C,S) System Freq. (V,C,S) System Freq. (V,C,S) VT Config. (V,C,S) Phase VT Sec . : (V,C,S) Phase VT Ratio: (V,C,S) Neut . VT Sec . : (V,C,S) Neut . VT Ratio: (V,C,S) Sync VT Sec . : (V,C,S) Sync VT Ratio . : (V,C,S) CT Config . (V,C,S) SEF CT Sec . : (V,C,S) SEF CT Ratio : (V,C,S) Display Backlight Timeout (V,C,S) Duration : (V,C,S) Setting Group (V,C,S) Active: (V,C,S) Edit / View : (V,C,S) Functions (V,C,S) Phase UV/0V Voltage (V,C,S) Fn. 27/59DT-1 (V,C,S) Function (V,C,S) Fn. Selection : (V,C,S) Measurement I/P: (V,C,S) Input Type: (V,C,S) Output Gate: (V,C,S) Pickup V: (V,C,S) Hysteresis: (V,C,S)

10. Using the IED


Pickup DTL Delay (V,C,S)

Reset DTL Delay: (V,C,S)

VTS Blocking: (V,C,S) Fn. 27/59DT-2 (V,C,S) Function (V,C,S) Fn. Selection : (V,C,S)

Measurement I/P: (V,C,S) Input Type: (V,C,S) Output Gate: (V,C,S) Pickup V: (V,C,S)

Hysteresis: (V,C,S) Pickup DTL Delay (V,C,S) Reset DTL Delay: (V,C,S)

VTS Blocking: (V,C,S)

Fn. 27/59DT-3 (V,C,S)

Function (V,C,S)

Fn. Selection : (V,C,S)

Measurement I/P: (V,C,S)

Input Type: (V,C,S)

Output Gate: (V,C,S)

Pickup V: (V,C,S)

Hysteresis: (V,C,S)




Fn. 27/59DT-4 (V,C,S)

Function (V,C,S)



Input Type: (V,C,S)

Output Gate: (V,C,S) Pickup V: (V,C,S)

Hysteresis: (V,C,S)

Pickup DTL Delay (V,C,S) Reset DTL Delay: (V,C,S) VTS Blocking: (V,C,S)

10. Using the IED


Fn. 27/59DT-5 (V,C,S)

Function (V,C,S)


Measurement I/P: (V,C,S) Input Type: (V,C,S) Output Gate: (V,C,S)

Pickup V: (V,C,S)

Hysteresis: (V,C,S) Pickup DTL Delay (V,C,S) Reset DTL Delay: (V,C,S)


Fn. 27/59DT-6 (V,C,S)

Function (V,C,S)



Input Type: (V,C,S)


Pickup V: (V,C,S)

Hysteresis: (V,C,S)



VTS Blocking: (V,C,S) Fn. 27/59IT-1 (V,C,S) Function: (V,C,S) Measurement I/P: (V,C,S) Input Type: (V,C,S) Output Gate: (V,C,S) Pickup V: (V,C,S) Hysteresis: (V,C,S) Curve Type: (V,C,S) TMS: (V,C,S) Reset DTL Delay: (V,C,S) Constant A: (V,C,S) Constant B: (V,C,S) Constant P: (V,C,S)

VTS Blocking (V,C,S)


10. Using the IED

Fn. 27/59IT-2 (V,C,S) Function: (V,C,S) Measurement I/P: (V,C,S) Pickup V2: (V,C,S) Hysteresis: (V,C,S) Curve Type: (V,C,S) TMS: (V,C,S) Pickup DTL Delay (V,C,S) Reset DTL Delay: (V,C,S) Constant A: (V,C,S) Constant B: (V,C,S) Constant P: (V,C,S) VTS Blocking (V,C,S) Over Flux (V,C,S)

Fn. 24DT-1 (V,C,S)

Function: (V,C,S) Measurement I/P: (V,C,S) Input Type: (V,C,S)

Output Gate: (V,C,S) Pickup V/F: (V,C,S) Hysteresis: (V,C,S)


Reset DTL Delay: (V,C,S) VTS Blocking: (V,C,S) Fn. 24DT-2 (V,C,S)

Function: (V,C,S)



Input Type: (V,C,S)


Pickup V/F: (V,C,S)

Hysteresis: (V,C,S)




10. Using the IED


Fn. 24IT-1 (V,C,S) Function (V,C,S) Measurement I/P: (V,C,S) Input Type (V,C,S) Output Gate (V,C,S)

Pickup V/F: (V,C,S)

Hysteresis: (V,C,S)

Curve Type: (V,C,S)

TMS: (V,C,S)


Reset Delay: (V,C,S)


Constant A: (V,C,S)

Constant B: (V,C,S)

Constant C: (V,C,S)

Constant K: (V,C,S)

Inverse K: (V,C,S)

User def X1: (V,C,S)







User def Y1: (V,C,S)








10. Using the IED


Der . Neut . 0V (V,C,S) Fn. 59NDT-1 (V,C,S)

Function: (V,C,S) Measurement I/P:

(V,C,S)

Pickup VN: (V,C,S)

Hysteresis: (V,C,S)




Fn. 59NDT-2 (V,C,S)

Function: (V,C,S)

Measurement I/P:

(V,C,S)

Pickup VN: (V,C,S)

Hysteresis: (V,C,S)




Fn. 59NIT-1 (V,C,S)

Function: (V,C,S)

Measurement I/P:

(V,C,S)

Pickup VN: (V,C,S)

Hysteresis: (V,C,S)

Curve Type: (V,C,S)

TMS: (V,C,S)


Constant A: (V,C,S)

Constant B: (V,C,S)

Constant P: (V,C,S)


10. Using the IED


Mea . Neut . 0V (V,C,S)

Fn. 59GDT-1 (V,C,S)

Function (V,C,S)

Measurement I/P:

(V,C,S)

Voltage Compen: (V,C,S)

Pickup VG: (V,C,S)

Hysteresis: (V,C,S)



Fn. 59GDT-2 (V,C,S)

Function (V,C,S)

Measurement I/P:

(V,C,S)

Function (V,C,S) Voltage Compen: (V,C,S) Pickup VG: (V,C,S)

Hysteresis: (V,C,S)



Fn. 59GIT-1 (V,C,S) Function (V,C,S) Measurement I/P:

(V,C,S)

Voltage Compen: (V,C,S) Pickup VG: (V,C,S) Hysteresis: (V,C,S)

Curve Type: (V,C,S)

TMS: (V,C,S)



Constant A: (V,C,S) Constant B: (V,C,S)

Constant P: (V,C,S)

Frequency (V,C,S)


10. Using the IED

Fn. 81U/0-1 (V,C,S)

Function: (V,C,S)

Fn. Selection: (V,C,S)

Pickup F: (V,C,S)

Hysteresis: (V,C,S)

Pickup Delay (V,C,S)


Fn. 81U/0-2 (V,C,S)

Function: (V,C,S)


Pickup F: (V,C,S)

Hysteresis: (V,C,S)



Fn. 81U/0-3 (V,C,S)

Function: (V,C,S)


Pickup F: (V,C,S)

Hysteresis: (V,C,S)



Fn. 81U/0-4 (V,C,S)

Function: (V,C,S)


Pickup F: (V,C,S)

Hysteresis: (V,C,S)



Fn. 81U/0-5 (V,C,S)

Function: (V,C,S)


Pickup F: (V,C,S)

10. Using the IED


Hysteresis: (V,C,S)



Fn. 81U/0-6 (V,C,S)

Function: (V,C,S)


Pickup F: (V,C,S) Hysteresis: (V,C,S)



Fn. 81U/0-7 (V,C,S)

Function: (V,C,S)

Fn. Selection: (V,C,S) Pickup F: (V,C,S)

Hysteresis: (V,C,S)



Fn. 81U/0-8 (V,C,S)

Function: (V,C,S) Fn. Selection: (V,C,S) Pickup F: (V,C,S)

Hysteresis: (V,C,S)



Fn. 81R-1 (V,C,S)

Function: (V,C,S) Pickup df / dt: (V,C,S) Hysteresis: (V,C,S)



Fn. 81R-2 (V,C,S)

Function: (V,C,S)

Pickup df / dt: (V,C,S)

Hysteresis: (V,C,S)



10. Using the IED


Fn. 81R-3 (V,C,S) Function: (V,C,S) Pickup df / dt: (V,C,S)

Hysteresis: (V,C,S)



Fn. 81R-4 (V,C,S)

Function: (V,C,S)

Pickup df / dt: (V,C,S)

Hysteresis: (V,C,S)


VTS Blocking: (V,C,S) Check Synchronization (V,C,S) Fn. 25/27/59 (V,C,S)

Function: (V,C,S)

Max Voltage: (V,C,S)

Min Voltage: (V,C,S)

Angle Diff: (V,C,S)

Pickup Delay: (V,C,S)

Freq Diff: (V,C,S)

Freq Diff: (V,C,S) DMLS: (V,C,S)

LMDS: (V,C,S) DMDS: (V,C,S)

SEF (V,C,S) Fn. 67SEF (V,C,S) Angle: (V,C,S) Minimum Voltage: (V,C,S) Measurement I/P: (V,C,S) VTS Blocking: (V,C,S)

10. Using the IED


Fn. 64/50SEF/67-1 (V,C,S)

Function: (V,C,S)

Direction: (V,C,S)

Measurement I/P:

(V,C,S)

Pickup ISEF: (V,C,S)

Pickup Delay: (V,C,S) Current Compensation: (V,C,S) Fn. 64/50SEF/67-2 (V,C,S)

Function: (V,C,S)

Direction: (V,C,S)

Measurement I/P:

(V,C,S)



Current Compensation: (V,C,S)

Fn. 64/51SEF/67-1 (V,C,S)

Function: (V,C,S) Direction: (V,C,S)

Measurement I/P:

(V,C,S) Pickup ISEF: (V,C,S) Curve Type: (V,C,S)

TMS: (V,C,S)


Reset Delay: (V,C,S)

Reset DTL Delay:: (V,C,S)

Reset Delay(TR): (V,C,S)

A: (V,C,S)

B: (V,C,S)

P: (V,C,S)

Current Compensation: (V,C,S)

Fn. 64/51SEF/67-2 (V,C,S)

Function: (V,C,S)

10. Using the IED


Direction: (V,C,S) Measurement I/P:

(V,C,S)


Curve Type: (V,C,S) TMS: (V,C,S) Reset Delay: (V,C,S)

Reset DTL Delay:: (V,C,S)

Reset TR: (V,C,S)

Constant A: (V,C,S)

Constant B: (V,C,S)

Constant P: (V,C,S)

Current Compen: (V,C,S)

Supervision (V,C,S)

Fn. 60VTS (V,C,S)

Function: (V,C,S)

Pickup VN: (V,C,S)

Pickup V3ph: (V,C,S)


CB Status Check:

(V,C,S) THD Voltage (V,C,S) Fn. THD-1 (V,C,S)

Function: (V,C,S)

Pickup THD-V: (V,C,S) Pickup Delay: (V,C,S) VTS Blocking: (V,C,S) Fn. THD-2 (V,C,S)

Function: (V,C,S)

Pickup THD-V: (V,C,S) Pickup Delay: (V,C,S) VTS Blocking: (V,C,S) Trip Circuit Supervision (V,C,S) Fn. 74TCS_1 (V,C,S)

Function: (V,C,S) Name:: (V,C,S)

10. Using the IED


Drop-off Delay: (V,C,S) Fn. 74TCS_2 (V,C,S)

Function: (V,C,S) Name:: (V,C,S) Drop-off Delay: (V,C,S)

Count Alarm (V,C,S)

Fn. U/V Alarm (V,C,S)

Function: (V,C,S)

Pickup V: (V,C,S)

U/V count: (V,C,S)

Cnt Accum. Per: (V,C,S)

Fn. O/V Alarm (V,C,S)

Function: (V,C,S)

Pickup V: (V,C,S)

O/V count: (V,C,S)


Fn. U/F Alarm (V,C,S)

Function: (V,C,S)

Pickup F: (V,C,S)

U/F count: (V,C,S)


Fn. O/F Alarm (V,C,S)

Function: (V,C,S)

Pickup F: (V,C,S)

O/F count: (V,C,S)

Cnt Accum. Per: (V,C,S) Reset TR: (V,C,S)

Constant A: (V,C,S)

Constant B: (V,C,S) Constant P: (V,C,S) Current Compen: (V,C,S) Fn. S/I Alarm (V,C,S)

Function: (V,C,S)

Count Input: (V,C,S)

10. Using the IED


Pickup Delay: (V,C,S) S/I count: (V,C,S) Cnt Accum. Per: (V,C,S)

Disturbance Record Settings (V,C,S)

Record Length: (V,C,S)

Pre-Trigger: (V,C,S)

Meters (V,C,S) Meter Display Option (V,C,S) Analog (V,C,S) VaMag: (V,C,S)

VaAng: (V,C,S)

VbMag: (V,C,S)

VbAng: (V,C,S)

VcMag: (V,C,S)

VcAng: (V,C,S)

VabMag: (V,C,S)

VabAng: (V,C,S)

VbcMag: (V,C,S)

VbcAng: (V,C,S)

VcaMag: (V,C,S)

VcaAng: (V,C,S)

VnMag: (V,C,S)

VnAng: (V,C,S)

VgMag: (V,C,S)

VgAng: (V,C,S)

VSyncM: (V,C,S)

VSyncA: (V,C,S)

ISefMa: (V,C,S)

ISefAn: (V,C,S)

V1Mag: (V,C,S)

V2Mag: (V,C,S)

V0Mag: (V,C,S)

%VF: (V,C,S)

%THD Voltage: (V,C,S)


10. Using the IED

Bus Voltage: (V,C,S)

Line Voltage: (V,C,S)

Bus Ph Angle: (V,C,S)

Line Ph Angle: (V,C,S)

Bus Frequency: (V,C,S)

Line Frequency: (V,C,S)

Digital (V,C,S)

DI (V,C,S)

EI1 (V,C,S)

EI2 (V,C,S)

EI3 (V,C,S)

EI4 (V,C,S)

DO (V,C,S)

RL1 (V,C,S)

RL2 (V,C,S)

RL3 (V,C,S)

RL4 (V,C,S)

RL5 (V,C,S)

RL6 (V,C,S)

RL7 (V,C,S)

RL8 (V,C,S)

Records (V,C,S)

View Events: (V,C,S)

View Faults: (V,C,S)

Utility (V,C,S)

Date and Time (V,C,S)

Date (V,C,S)

Time (V,C,S)

Display Time As (V,C,S)

UTC Offset (V,C,S)

Communication (V,C,S)

Com1-USB(Serial) (V,C,S)

Host: Serial Gadget (V,C,S)

COM2-RS485 (V,C,S)

10. Using the IED


Protocol: (V,C,S)

Baud Rate: (V,C,S)

Parity: (V,C,S)

Relay Address: (V,C,S)

Com3-Ethernet (V,C,S)

IP Address: (V,C,S)

Port: (V,C,S)

Subnet Mask: (V,C,S)

Default Gateway: (V,C,S)

Mac Address: (V,C,S)

Erase Event Rec (C,S)

Erase Event Rec: (C,S)

Erase Fault Rec: (C,S)

Erase DR: (C,S)

Calibration (S)

Voltage & Current (S)

Calibrate VA (S)

Calibrate VB (S)

Calibrate VC (S)

Calibrate VG (S)

Calibrate VSync (S)

Calibrate Isef (S)

Password Settings (S)

Change PW (S)

New Change PW (S)

New Service PW (S)

PW Access Timer (V,S)

PW Access Timer (V,S)

PW Enable/Disable (S)

PW Enable: (S)

Firmware Update (S)

Confirm Update (S)

Test Mode (S)

Test Mode Selection (S)

10. Using the IED


Unit Identifications (V,C,S)

Product Version: (V,C,S)

Serial Number: (V,C,S)

Unit ID: (V,C,S)

Firmware Ver: (V,C,S)

Settings Date: (V,C,S)

Settings Ver: (V,C,S)

RCP Ver: (V,C,S)

Comments: (V,C,S)

Station Name: (V,C,S)

Location: (V,C,S)

Bay Name: (V,C,S)

Load Date: (V,C,S)


10. Using the IED

Where the access levels required to access each are indicated

V: view

C: change S: service

To login into the LCD menu structure, follow these steps:

2013Feb24 12:17

O-10122 Figure 10.2: Main Screen

In the Main Screen, Press Enter Key.

Figure 10.3: View / Change / Service: Choice Menu

In the View / Change / Service: Choose Menu screen, choose desired access level, and Press Enter key.

Figure 10.4: Enter Password

In the Enter PW screen, enter appropriate six digit password and Press Enter key on the return character (right bottom one)

Figure 10.5: Main Menu The Main Menu screen should appear. Note: The default passwords are below :(remove quotation marks)

1) View Access – no password for View access in LCD 2) Change Access “0”

3) Service Access “z”

F-PRO

Bay Name

View

Change

Enter PW

-------------

Configuration

Meters


10. Using the IED

10.4 Relay Control Panel

RCP is used for all user interface. A short description of the RCP configuration to connect to a relay is given here. Please refer to the Relay Control Panel User Manual for details.

Follow this sequence to configure RCP for USB link to the relay.

1. Execute Relay Control Panel.exe 2. Execute F-PRO Offliner.exe 3. Install Null Modem Driver. Please refer to the Relay Control Panel User Manual for details. 4. Run Relay Control Panel. Go to: Start > All Programs > ERLPhase > Relay Control Panel > Relay Control Panel First time RCP is run. Hit Add New.

“Add New Relay” Choose Communication > Direct Serial Link. Hit Get Information From Relay. Then RCP will communicate with the FPRO-216 and retrieve information to fill required fields. When this is done, hit Save Relay. If the window “Relay already exists...” pops up, you may need to re- name the relay changing the “Relay Name” in the “Relay Definition” category, before saving. After first time, in “Select Relay”, choose relay and hit Connect. In “Relay Password Prompt” Choose desired access level, enter appropriate password Note: Default passwords are listed below (remove the quotation marks)

View Access “v” Change Access “0” Service Access “z”

The basic structure of the Relay Control Panel information, including basic actions available, is given below:


10. Using the IED

Notice that some options are not available (N/A) depending on the access level

Table 10.5: Relay Control Panel Structure

View Change Service

Relay Control Panel

Records Trigger Fault Trigger Fault

Trigger Event Trigger Event

Faults Erase Erase

Events Erase Erase

Metering

Analog Input View View View

I^2t View View View

Status (DI) View View View

Protection status View View View

Outputs (Status DO) View View View

ProLogic

Virtual

Utilities

Unit Identification View View View

Settings Group N/A Save Save

Time N/A Save Save

Analog Input Calibration N/A N/A Save

Virtual Inputs N/A Latch/Pulse Latch/Pulse

Toggle Outputs N/A N/A Close/Open

Set/Reset I^2t N/A Save Save

Password N/A N/A Save

Configuration

Present Settings (Get From

Relay) (Get From Relay)

(Get From Relay)

Saved Settings View

(Load to Relay)

(Load to Relay)


11 Protection Functions,Applications and Specifications

11.1 Protection and Recording Functions Introduction This section describes the equations and algorithms that define the F-PRO Protection

functions. The functions are 27/59DT-1to 6, 27/59IT-1 to 2, 24DT-1 to 2, 24IT, 47DT-1 to 2, 47IT, 59NDT-1 to 2, 59NIT, 59GDT-1 to 2, 59GIT, 81U/O-1 to 8, 81R-1 to 4, 25/27/59, 64/50SEF-1 to 2, 64/51SEF-1 to 2, 60VTS, 74TCS-1 to 2, THD-1 to 2,Counter alarm and Prologic have user-settable intentional pickup and drop off delay. The functions have alarm output when their pick up levels are exceeded. When the alarm occurs, the front alarm LED turns on and an output contact closes, if this option is selected in the output matrix settings. The alarm indication resets when the function reverts to reset state, if reset type is selected has Self Reset. A complete list of the settings and their range values can be found in ‘IED settings and Ranges’ in Appendix B.

27/59DT Phase (Definite Time Under /Over Voltage) The Phase Definite time (instantaneous) Under/Over voltage function has 6 stages.

Each individual stage consists of both time delayed and instantaneous protection.

This relay provides protection against under or over voltage from bus/line PT’s.

OPERATION:

Under Voltage DT – Whenever the injected (rms/fundamental) value reaches the same or below the precise pick up value, this function gets operated. The drop out value of this function mainly depends on the % hysteresis.

Over Voltage DT – Whenever the injected (RMS/FUNDAMENTAL) value reaches the same or above the precise pick up value, this function gets operated. The drop out value of this function mainly depends on the % hysteresis.

Note: Both this function should mainly satisfy the logic gates i.e. OR, AND.60VTS function has been clearly explained in that respective protection function.


11. Protection Function, Application and Specification

Fig: 27/59DT Under voltage / Overvoltage Logic Diagram

Table 11.1: 27/59DT - Phase Definite Time Under/Over Voltage Settings (No. of Stages – 6)

Setting Description Range Function Activation Enable/Disable Function Selection UV / OV

Measurement Input Fundamental / RMS

Input Type Ph-N / Ph-Ph

Output Gate AND / OR

Pickup V 3.0 to 250.0V

Hysteresis 1% to 80%

Pickup DTL Delay 0.00 to 999.99 Seconds

Reset DTL Delay 0.00 to 999.99 Seconds

VTS Blocking Enable/Disable



27/59IT Phase (Inverse Time Under / Over Voltage) The Phase inverse time Under/Over voltage function has 2 stages. Each individual

stage consists of both time delayed and instantaneous protection. This relay provides protection against under or over voltage from bus/line PT’s. It comprises of DTL,IEC standard, extreme, long time inverse curve and user defined curve.

OPERATION:

Under Voltage IT – Whenever the injected (RMS/FUNDAMENTAL) value reaches the same or below the precise pick up value, this function gets operated based on curve settings. The drop out value of this function mainly depends on the % hysteresis.

Over Voltage IT – Whenever the injected (RMS/FUNDAMENTAL) value reaches the same or above the precise pick up value, this function gets operated based on curve settings. The drop out value of this function mainly depends on the % hysteresis.


Fig:27/59 IT Under voltage / Overvoltage Logic Diagram

* Operate & Reset time of the inverse characteristics can be calculated using the respective formulas presented above:



Table 11.2: IEC Curves

Sl.No. Characteristic A B p

1

Definite Time Lag

1.0

1.0

1.0

2

IEC Standard Inverse

1.0

0.0

1.0

3

IEC Extreme Inverse

40.0

1.0

2.0

4

IEC Long Time Inverse

5.0

2.0

2.0

5

User-defined

0.10 to 50.0

0.0 to 10.0

0.1 to 10.0

Table 11.3: 27/59IT Phase Inverse Time Under / Over Voltage Settings (No. of Stages – 2)

Setting Description Range Function Activation Enable / Disable Function Selection UV / OV

Measurement Input Fundamental / True RMS



Pickup V 3.0 to 250.0 V

Hysteresis 1% to 80%

Curve Type For details see Table 11.2 “IEC Curves” on page 11-4

TMS 0.01 to 10.00

Pickup DTL Delay 0.00 to 999.99 seconds

Reset DTL Delay 0.0 to 999.99 seconds if chosen for user defined characteristics

A 0.1 to 50.0 settable if chosen for user defined characteristics

B 0.0 to 10.0 settable if chosen for user defined characteristics

P 0.1 to 10.0 settable if chosen for user defined characteristics VTS Blocking Enable/disable



24DT (DEFINITE TIME OVERFLUX)

The over flux protection is used to detect the impermissible over flux condition in electrical equipment, which can endanger eg: transformers, generators. These are caused due to the increase in voltage and decrease in frequency.

The magnetic flux is directly proportional to voltage and inversely to its frequency. This is of the form,

Φ = V/F

OPERATION:

Whenever the injected (RMS/FUNDAMENTAL) value reaches the same or above the precise pick up (v/f) value, this function gets operated. The drop out value of this function varies with the % hysteresis.


Fig: 24 DT over flux Logic Diagram

Table 11.4. 24DT Definite Time Over flux Settings (No. of Stages – 2)

Setting Description Range

Function Activation Enable/disable




Pickup 1.00 to 3.00 per unit. Hysteresis 1 to 80% Pickup DTL Delay 0.00 to 999.99 seconds Reset DTL Delay 0.00 to 999.99 seconds

VTS Blocking Enable/disable



24IT INVERSE TIME OVER FLUX The over flux protection is used to detect the impermissible over flux condition in

electrical equipment, which can endanger eg: transformers, generators. These are caused due to the increase in voltage and decrease in frequency.

The magnetic flux is directly proportional to voltage and inversely to its frequency. This is of the form,

Φ = V/F

OPERATION: Whenever the injected (RMS/FUNDAMENTAL) value reaches the same or above the precise pick up (v/f) value, this function gets operated. The drop out value of this function varies with the % hysteresis.


Fig: 24 IT Inverse Time over flux Logic Diagram

For IEC 1: = ( )

For ANSI 1,2,3: = ( ∗ )/

For Inverse Curve: =

= + ( ∗ ) − .



=

Table 11.5. 24IT Inverse Time Over flux Settings (No. of Stages – 1) Setting Description Range Function Activation Enable / Disable Measurement Input Fundamental / RMS



Pickup V/F 1.00 to 1.50/2.00/3.00 per unit. Hysteresis 1 to 80%

Curve type For details see Table 11.2 “IEC Curves” on TMS 0.01 to 10.00 seconds Pickup DTL Delay 0.00 to 999.99 seconds Reset Delay DTL / ANSI Decay Reset DTL Delay 0.0 to 99.99 seconds Constant A Constant Value based on Curve Type Constant B 0.01 to 10.00 Constant C Constant Value based on Curve Type Constant K Constant Value based on Curve Type Inverse K 0.01 to 99.90 (For Inverse Curve only) User define set points X1 to X7 1.00 to 3.00 Per Unit User define set points Y1 to Y7 0.05 to 9999.99 seconds

VTS Blocking Enable / Disable



47 DT Negative Phase Sequence Over voltage The 47DT Voltage Phase Sequence Relay provides protection for rotating equipment

from the damaging effects of excessive negative sequence voltage resulting from phase Failure, phase unbalance and reversed phase sequence.

Here is a formula to find out the negative phase sequence voltage,

= 1/3[ +∝ +∝ ] where,

Va, Vb, Vc – phase voltages

α - Constant

V2 -Negative phase sequence voltage.

OPERATION:

Whenever we are operating a relay in phase reversal and unbalanced condition (Injected phase voltages is greater than the pickup value) the relay gets operated. The drop out value of this function varies with the % hysteresis.

Note: 60VTS function has been clearly explained in that respective protection function.

Table 11.6. 47DT Definite Time Over flux Settings (No. of Stages – 2)


Function Activation Enable / Disable


Pickup 1.0 to 150.0 V Hysteresis 1 to 80%


Reset DTL Delay 0.00 to 999.99 seconds




47 IT (Inverse Negative Over voltage) The 47IT Voltage Phase Sequence Relay provides protection for rotating equipment

from the damaging effects of excessive negative sequence voltage resulting from phase Failure, phase unbalance and reversed phase sequence.

Here is a formula to find out the negative phase sequence voltage,

= 1/3[ +∝ +∝ ] where,

Va, Vb, Vc – phase voltages

α - Constant

V2 -Negative phase sequence voltage.

OPERATION:

Whenever we are operating a relay in phase reversal and unbalanced condition (Injected phase voltages is greater than the pickup value) the relay gets operated based on curve settings. The drop out value of this function varies with the % hysteresis. It consists of DTL, IEC standard inverse curve, User defined curves.

( 2) = +


Table 11.7. 47IT Inverse Time Over flux Settings (No. of Stages – 2)




Pickup V2 1.0 to 150.0 V Hysteresis 1 to 80% Curve type For details see Table 11.2 “IEC Curves” on

page 11-4

TMS 0.01 to 10.00


Reset DTL Delay 0.00 to 999.99 seconds A 0.1 to 50.0 settable if chosen for

user defined characteristics B 0.0 to 10.0 settable if chosen for user

defined characteristics P 0.1 to 10.0 settable if chosen for user defined characteristics VTS Blocking Enable / Disable



59NDT Derived Residual Definite Time Overvoltage This function provides protection against ground faults irrespective of the system

grounding connection used.

Depending on the VT configuration, the protection will operate from an internally calculated value from the 3 phase to neutral voltage measurements or a directly measured value of residual voltage from a broken delta VT or from the secondary winding of a distribution transformer ground at the generator neutral.

OPERATION:

This protection function works based on the injected voltage (unbalanced), this unbalanced voltage flows through the ground via neutral.

Whenever the neutral voltage (Vn) reaches the same or above the pickup value then the relay gets operated.

The dropout voltage mainly depends on the % hysteresis.


Table 11.8. 59NDT Derived Residual DT Settings (No. of Stages – 2)




Pickup 1.0 to 250.0 V Hysteresis 1 to 80%


Reset DTL Delay 0.00 to 999.99 seconds VTS Blocking Enable / Disable



59NIT Derived Residual Inverse Time Overvoltage This function provides protection against ground faults irrespective of the system



OPERATION:

This protection function works based on the injected voltage (unbalanced), this unbalanced voltage flows through the ground via neutral.

Whenever the neutral voltage (Vn) reaches the same or above the pickup value based on the selected curve, the relay gets operated.

( ) = +



Table 11.9. 59NIT Derived Residual IT Overvoltage Settings




Pickup 1.0 to 250.0 V

Hysteresis 1 to 80%

Curve type For details see Table 11.2 “IEC Curves” on page11-4

TMS 0.01-10

Pickup DTL Delay 0.00 to 999.99 seconds Reset DTL Delay 0.00 to 999.99 seconds



P 0.1 to 10.0 settable if chosen for user defined characteristics




59GDT Measured Residual Definite Time Overvoltage This function provides protection against ground faults irrespective of the system



OPERATION:

o This protection function works based on the injected voltage (unbalanced), this unbalanced voltage flows through the ground via neutral.

o Whenever the ground voltage (Vg) reaches the same or above the pickup value then the relay gets operated.

o The Ground voltage can be obtained from the connection diagram of the relay especially in the Vg.

o The dropout voltage mainly depends on the % hysteresis.


Table 11.10. 59GDT Measured Residual DT Settings (No. of Stages – 2)




Voltage compensation 0.0 to 15.0V Pickup(Vg) 1.0 to 250.0 V

Hysteresis 1 to 80%


Reset DTL Delay 0.00 to 999.99 seconds



59GIT Measured Residual Inverse Time Overvoltage This function provides protection against ground faults irrespective of the system



OPERATION: This protection function works based on the injected voltage (unbalanced), this

unbalanced voltage flows through the ground via neutral. Whenever the ground voltage (Vg) reaches the same or above the pickup value based

on the type of curve, the relay gets operated. The Ground voltage can be obtained from the connection diagram of the relay

especially in the Vg.

( ) = +

− 1

The dropout voltage mainly depends on the % hysteresis. Note: 60VTS function has been clearly explained in that respective protection function.

Table 11.11. 59GIT Measured Residual IT Overvoltage Settings


Function Activation Enable / Disable Measurement Input Fundamental / RMS

Voltage compensation 0.0 to 15.0 V

Pickup 1.0 to 250.0 V Hysteresis 1 to 80% Curve type For details see Table 11.2 “IEC Curves” on page 11-4

TMS 0.01-10.00

Pickup DTL Delay 0.00 to 999.99 seconds Reset DTL Delay 0.00 to 999.99 seconds



P 0.1 to 10.0 settable if chosen for user defined characteristics



81 U/O Under/ Over frequency Over frequency: Over frequency arise due to excess of power generation and it can

easily be corrected by reduction in the power Outputs with the help of the governor or manual control.

Under frequency: Under frequency occurs due to the excess of load. During an overload, generation capability of the generator increases and reduction in frequency occurs. The power system survives only if we drop the load so that the generator output becomes equal or greater than the connected load. If the load increases the generation, then frequency will drop and load need to shed down to create the balance between the generator and the connected load. The rate at which frequency drops depend on the time, amount of overload and also on the load and generate or variations as the frequency changes. Frequency decay occurs within the seconds so we cannot correct it manually. Therefore automatic load shedding facility needs to be applied.

OPERATION:

The over frequency protection function operates, when the injected value Of frequency is same or greater than the pickup value.

The under frequency function operates, when the injected value of frequency is equal

or lesser than the pickup value.



Table 11.12. 81U/O frequency Settings (No. of Stages – 8)



Functional selection UF / OF

Pickup (F) 40.00 to 60.00 Hz Hysteresis 1 to 80%

Pickup Delay 0.00 to 999.99 seconds




81 R Rate of change of frequency Rate of change of frequency (ROCOF or df/dt):- It is used for fast load shedding, to

speed up operation time in over- and under-frequency situations and to detect loss of grid. For example a centralized dedicated load shedding relay can be omitted and replaced with distributed load shedding, if all outgoing feeders are equipped with protection devices. A special application for ROCOF is to detect loss of grid (loss of mains, islanding). The more the remaining load differs from the load before the loss of grid, the better the ROCOF function detects the situation.

Over frequency: Over frequency arise due to excess of power generation and it can easily be corrected by reduction in the power Outputs with the help of the governor or manual control.

Under frequency: Under frequency occurs due to the excess of load. During an overload, generation capability of the generator increases and reduction in frequency occurs. The power system survives only if we drop the load so that the generator output becomes equal or greater than the connected load. If the load increases the generation, then frequency will drop and load need to shed down to create the balance between the generator and the connected load. The rate at which frequency drops depend on the time, amount of overload and also on the load and generate or variations as the frequency changes. Frequency decay occurs within the seconds so we cannot correct it manually. Therefore automatic load shedding facility needs to be applied.

OPERATION:

Whenever the rate of change of frequency reaches same or above (If set Pickup is Positive values) the pickup value, then this function gets operated.

Whenever the rate of change of frequency reaches same or below (If set Pickup is Negative values) the pickup value, then this function gets operated.



Table 11.13. 81R ROCOF Settings (No. of Stages – 4)



Pickup (df/dt) -10 to 10 Hz Hysteresis 1 to 80%





25/27/59 Check Synchronization The relay can bring in voltages from both line and bus PTs. The Line Sync

Check function, if enabled, looks at the voltage steady state angle between the line and bus PT voltage. If this angle is within a plus/minus specified value, (+/ - 1 to 50 degree magnitude range of setting available), the function enables a definite time delay pickup (user-selectable 0 to 10 seconds) after which time and output is produced.

The line sync reference voltage is taken from a bus source. The relay can bring one single phase-to-neutral voltage. Logic within the relay allows the single phase quantity to be either A, B or C phase. All unused single-phase inputs must be grounded for proper operation. The Dead Main Live Auxiliary (DMLA), Live Main Dead Auxiliary (LMDA) and Dead Main Dead Auxiliary (DMDA) logic functions use fixed values of main and auxiliary positive sequence secondary voltages to determine the Sync Check condition. The voltage is fixed at 20 V secondary, voltages below 20 V are declared a dead state and voltages above 20 V are declared a live state. When enabled, this function checks that the voltage angle between the line PT and bus PT are within a specified value. Use this function to ensure that closing a line to a system will result in acceptable power flow. The function uses positive sequence voltage, and therefore, can accommodate single-phase sources as well as 3-phase sources. If a single-phase source is used, it must be connected to the corresponding phase designation on the relay input. For example: If only a B-phase bus PT is available, it should be connected to the relay input B phase terminals. In this example, the voltage and angle limit is 20 degrees with no pickup or drop out delay. The Dead Main Live Auxiliary, Live Main Dead Auxiliary and Dead Main Dead Auxiliary logic functions use fixed values of main and auxiliary positive sequence secondary voltages to determine the sync check condition. The voltage is fixed at 20 V secondary. Voltages below 20 V are declared a dead state and voltages above 20 V are declared a live state.



11-17 F-PRO User Manual F295-02-

Fig: Syncro Check (25/27/59) Logic Diagram

Table 11.14. 25/27/59 Check synchronization Settings



Maximum Voltage 60.0 to 138.0V Minimum Voltage 40.0 to 69.9V

Angle Difference 1.0 to 50.0 deg

Pickup delay 0.00 to 10.00 seconds

Frequency difference Enable / Disable Frequency difference 0.01 to 2.00 Hz DMLS Enable / Disable LMDS Enable / Disable DMDS Enable / Disable



67/64/50 Instantaneous Sensitive Earth Fault

The sensitive earth fault protection works by measuring the residual current across the three phases in a system. This is done using a Core balanced current transformer (CBCT). In the event of a fault, the residual current over the three phases will not be equal to zero as the current from the faulted phase flows through the earth. The sensitive earth fault protection is usually used in alternators and transformers with high resistance grounding. High resistance grounding restricts the earth fault current to less than 10A. High resistance grounding enables electrical systems to continue running when one of the phases is faulted. This prevents interruptions to the power supply. This kind of earthing system provides time to identify and isolate the fault.

Once an earth fault occurs in the high resistance grounding system, an alarm needs to be generated and the fault needs to be traced. For this a reliable protection which detects earth faults even when the fault current is very low is necessary. Undetected earth faults in this system are dangerous as a second earth fault in another phase may result in a short- circuit. Conventional earth fault relays may not be accurate in detecting an earth fault at such low current values.

The sensitive earth fault protection, as the name suggests, is a highly sensitive relay. It can sense currents as low as 0.2% of the CT secondary current.

The sensitive earth fault relay may be configured to either generate an alarm or a trip signal.

OPERATION: Non directional - For this function the relay will operates irrespective of the angle as the name suggests when the injected voltage and current is same or above the pickup value. In this function, pickup voltage value will not take in to account. Directional(FWD & REV) – For this function the relay gets operated by considering the polarization characteristics angle(whether fwd or rev direction) and the injected voltage and current is same or above the pickup value



Table 11.15. 67 SEF Settings


Characterizing angle -95 to + 95 degrees

Minimum voltage 0.3 to 40.0 V Measurement I/P VN / V2


Table 11.16. 64/50 SEF Settings



Direction selection Non Dir / FWD / REV Measurement I/P Fundamental / RMS

Pickup Isef >> 0.005 to 3.000 A


Current compensation 0.000 to 0.500 A



60 VTS Voltage Supervision function is to detect loss of single, two or even all there phases

voltage inputs to relay. The voltage fail may happen due to internal faults in voltage transformer or due to human errors such as faults in terminal wirings to relay. This causes mal-operation of directional elements and the consequence is instability of power system. Thus VT Supervision function is incorporated in the directional relay. This function on detection of VT fail, blocks the protection functions. The function detects VT fail on the basis that during single or two phase VT fail, there will be presence of negative sequence voltage but the negative sequence current which usually accompanies it during normal unbalance will not be present. But, during three phases VT fails, there will not be even negative sequence voltage. At that time, it works as per the logic settings that have been loaded. If the negative and positive sequence voltage exceeds the set value, the function is blocked as it will increase on a fault only. OPERATION: Condition 1: Whenever the Injected neutral voltage (Vn) is less than the Pickup value, the relay gets operated.

Condition 2: Whenever the Injected Phase - Phase voltage (V3ph) is more than the Pickup value, the relay gets operated.

Condition 3: Whenever there is no potential in any one of the phases, the relay gets operated.

Table 11.17. 60 VTS Settings



Pickup Vn > 1.0 to 40.0 V

Pickup V3ph < 1.0 to 40.0 V Pickup delay 0.10 to 999.99 seconds

CB check status Enable / Disable



THD Total harmonic

Distortion Total harmonic distortion, or THD, is the summation of all harmonic components of the voltage or current waveform compared against the fundamental component of the voltage or current wave.

% THD =⋯

V1 – Nominal voltage i.e voltage at normal condition say for eg, 63.5V. V2 - Harmonic voltage of 2nd order.

OPERATION: Whenever the injected harmonic voltage is same or above the %THD voltage, the relay gets operated.

Table 11.18. THD Settings

Setting Description Range Function Activation Enable / Disable Pickup THD-V 1 to 100% Pickup delay 0.00 to 999.99 seconds

VTS blocking Enable / Disable

74 Trip Circuit Supervision (TCS) Trip Circuit Supervision Relay is an electronic-circuit based relay which is used to

monitor and supervise the integrity of circuit breakers trip coil and other wiring circuits of low-voltage and medium-voltage network.

Trip Circuit Supervision Relay is connected with a circuit breaker to monitor the trip circuit positions (open or closed).

Trip Circuit Supervision Relay generates a trip circuit failure alarm, either if the trip circuit supply is disconnected or if the trip circuit connection is changed to an open circuit. OPERATION: This function needs an external input for triggering when the function is enabled. When this external input is triggered Table 11.19. 74 TCS Settings



Name User Defined

Drop off delay 0.00 to 9.99 seconds



Counter Alarm UNDER VOLTAGE:

This function operates based on the pickup value, U/V count and number of days. Whenever the injected value is same or below the pickup value with the appropriate count and duration setting, the relay will get operated.

OVER VOLTAGE: This function operates based on the pickup value, O/V count and number of days. Whenever the injected value is same or above the pickup value with the appropriate count and duration setting, the relay will get operated.

UNDER FREQUENCY: This function operates based on the pickup value, U/F count and number of days. Whenever the injected value is same or below the pickup value with the appropriate count and duration setting, the relay will get operated.

OVER FREQUENCY: This function operates based on the pickup value, O/F count and number of days. Whenever the injected value is same or above the pickup value with the appropriate count and duration setting, the relay will get operated.

STATUS I/P: Whenever the external input increase beyond the count limit with the prompt duration setting, the relay gets operated.

Table 11.20. COUNTER ALARM- UV Settings



Pickup value 1.0 to 220.0 V

U/V count 1 to 1000 Count Acc period 1 to 31 days

Table 11.21. COUNTER ALARM- OV Settings



Pickup value 1.0 to 220.0 V

O/V count 1 to 1000 Count Acc period 1 to 31 days



Table 11.22. COUNTER ALARM- UF Settings



Pickup value 40.00 to 50.00 Hz

U/F count 1 to 1000 Count Acc period 1 to 31 days

Table 11.23. COUNTER ALARM- OF Settings



Pickup value 40.00 to 50.00 Hz

O/F count 1 to 1000 Count Acc period 1 to 31 days

Table 11.24. COUNTER ALARM- SI Settings



Count I/P SI1 / SI2 / SI3 / SI4

Pickup delay 0.00 to 99.99 seconds

S/I count 1 to 1000 Count Acc period 1 to 31 days



ProLogic ProLogic Control Statements Using ProLogic, F-PRO can pick-up any of the protection functions or external inputs and place them into Boolean-like statements. ProLogic handles up to five functions to generate one ProLogic statement and 20 statements are possible. The results from these statements are mapped to output contacts using the output matrix.

Special ProLogic inputs are:

• Virtual Inputs#1 as an input to ProLogic.

The ProLogic control statements are used to create Boolean-like logic. The F- PRO can use any of the protection functions or external inputs combined with logic gates to create a ProLogic control statement. The possible gates are AND, NAND, OR, NOR, XOR, NXOR, and LATCH. The control can be time delay pickup and or time delay dropout, and can drive the front panel target LED. 20 ProLogic control statement outputs are available and can be used in the output matrix to customize the relay to customer specific needs. Inputs to ProLogic are all the elements plus previous ProLogic statements for logic nesting usage.

Table 11.25: ProLogic Function settings


Function Activation Enable / Disable Name User define (Up to 12 Characters)

Pickup Delay - Tp 0.00 to 999.00 seconds

Dropout Delay - Td 0.00 to 999.00 seconds

Number of Inputs Up to 5 (Input A,B,C,D,E)

Operators Boolean-type logic gates

The example shows A to E inputs are status points of functions that are user-selectable. Each ProLogic output can be given a specific name, pickup and reset time delay.

Figure 11.1: ProLogic



11.2 Recording Functions The F-PRO Relay provides numerous recording and logging functions, including a

fault recorder and an event log to analyze faults, to know the performance of the relay and to observe the status of the protection and to review the operation of the overall protection scheme.

Record Duration and Extension The length of each record is determined by the Record Length setting. Fault record

lengths can be set between 1 and 20 seconds. Pre-trigger times can be fixed from 0.1 to 0.5 seconds for fault records and are included as part of the normal record length.

F-PRO relay automatically extends a record as required to capture consecutive triggers that are close together. If a trigger occurs while a recording is in progress, the record is stretched to include the full post-trigger time of subsequent triggers, up to a maximum length — 20 seconds for fault records. If a trigger occurs before the end of a record caused by a previous trigger, but too late to allow sufficient post-trigger time in a maximum extended record, a new over- lapping record is created.

The normal record lengths settings are accessible in the Configuration >Disturbance record setting >Record Length option settings, and can be set from either the HMI or the Offliner Set-tings software.

Event Recording The event recording provides permanent storage of the event log. An event record can be created automatically or manually.

Recording can be initiated manually through Relay Control Panel. The command Trigger Event is available under the Records menu.

Record Storage The F-PRO compresses records on the fly, achieving a typical lossless compression rate of 4:1. As a result, the F-PRO can store up to 4000 seconds of fault recordings in non-volatile storage. If the storage is full, new records automatically overwrite the oldest, ensuring that the recording function is always available.

Retrieval and Analysis A list of stored records is available through the Relay Control Panel in the Records tab.

From Relay Control Panel you can retrieve the record and delete or leave on the relay, graph the record, export the record to COMTRADE. Records are named by combining the Unit ID setting with the date and time of the initiating record trigger.



To delete a record from storage, right-click on the record and select Delete, or alternatively, select the record and press the <Del> key. You can also do group deleting and group transferring.

To select multiple records 1. Select a record 2. Hold the <Shift> key. 3. Continue selecting records until all desired records are selected.

4. Press the <Del> key. A message asks “Are you sure you want to delete multiple records from the relay?” shown above. Select Delete and the

files are deleted. When a record is retrieved from the relay using Relay Control Panel program, it is automatically transferred to your PC as well. The record is placed in your Relay Control Panel program’s Recordings folder. The Relay Control Panel's default Recordings folder can be set when the relay is initially connected to the PC, as shown in the following image.

Figure 11.2: Recording Folder

When transferred to your computer, the record name remains unchanged and the file extension indicates the record type: .fpr for transient recording, and .fpe for an event recording.



11.3 Logging Functions Event Log Logged events include trips, alarms, external input assertions plus internal events such

as setting changes. Fault information and classification information is included in event messages where appropriate. For example, the event log entry for a function trip might be:

2016 Oct 21, 15:34:19.832: 51-1 ABC Operated.

The event log can be viewed in three ways:

• Relay Front HMI

• Relay Control Panel interface is in the Events tab

• SCADA protocols included in the F-PRO allow the SCADA server/client access to Trip and Alarm event data.

Events that occur during a transient fault recording are also embedded in the transient record and can be viewed in Relay Control Panel, RecordBase View and RecordGraph. Although the event log is circular, you may ensure events are not lost by checking the manual trigger option on the records menu in Relay Control Panel. When this option is selected, as the event log is required by user, it will save the records to an event file .fpe. The event log will then be ready to capture up to 1000 new events.

This display is a snapshot of the event list which must be manually refreshed to display new events that occur while the display is up.

There is a list of the F-PRO event messages. For details see “Event Messages” in Appendix D

Fault Log The F-PRO stores a log of faults in a 20 entry circular log. Each entry contains the time

of the fault, fault type, faulted phase, fault quantities as per the below table. Fault log will be triggered only for trip condition and it won't log for an alarm condition.

Table 11.26: Fault Log

Fault Type Fault Quantities

27DT-1 Phase Indication VA/VB/VC/VN

27DT-2 Phase Indication VA/VB/VC/VN 27DT-3 Phase Indication VA/VB/VC/VN 27DT-4 Phase Indication VA/VB/VC/VN 27DT-5 Phase Indication VA/VB/VC/VN 27DT-6 Phase Indication VA/VB/VC/VN 27IT-1 Phase Indication VA/VB/VC/VN 27IT-2 Phase Indication VA/VB/VC/VN










59IT-1 Phase Indication VA/VB/VC/VN

59IT-2 Phase Indication VA/VB/VC/VN

24DT-1 Phase Indication VA/VB/VC/%V/F

24DT-2 Phase Indication VA/VB/VC/%V/F

24IT Phase Indication VA/VB/VC/%V/F

47DT-1 VA/VB/VC/V2

47DT-2 VA/VB/VC/V2

47IT VA/VB/VC/V2

59NDT-1 VA/VB/VC/VN

59NDT-2 VA/VB/VC/VN

59NIT VA/VB/VC/VN

59GDT-1 VA/VB/VC/VG

59GDT-2 VA/VB/VC/VG

59GIT VA/VB/VC/VG

81U-1 VA/VB/VC/Freq

81U-2 VA/VB/VC/Freq

81U-3 VA/VB/VC/Freq

81U-4 VA/VB/VC/Freq




81U-5 VA/VB/VC/Freq

81U-6 VA/VB/VC/Freq

81U-7 VA/VB/VC/Freq

81U-8 VA/VB/VC/Freq

81O-1 VA/VB/VC/Freq

81O-2 VA/VB/VC/Freq

81O-3 VA/VB/VC/Freq

81O-4 VA/VB/VC/Freq

81O-5 VA/VB/VC/Freq

81O-6 VA/VB/VC/Freq

81O-7 VA/VB/VC/Freq

81O-8 VA/VB/VC/Freq

81R-1 VA/VB/VC/dF/dt




64/50SEF-1 VA/VB/VC/ISEF




The fault log can be viewed in three ways:

• Relay Front HMI

• Relay Control Panel interface is in the Events tab

• SCADA protocol included in the F-PRO allows the SCADA Master / Client access to Trip event


12 Data Communications 12.1 Introduction

This deals with data communications with the relay. First, the SCADA protocol is discussed, and it is then followed by the new IEC 61850 communication standard.

The SCADA protocol deals with the Modbus and IEC 60870-5-103 protocols. The SCADA configuration and its settings are described. The parameters for SCADA communications are defined using F-PRO Offliner software. Finally, details on how to monitor SCADA communications are given for maintenance and trouble shooting of the relay.

12.2 SCADA Protocol

Modbus Protocol

The relay supports either a Modbus RTU or Modbus ASCII SCADA connection. Modbus is available exclusively via a direct serial link. Serial Modbus communications can be utilized exclusively via serial com Port 2 (RS485 port), which is located on the rear of the relay. An external RS-232 to RS-485 converter is not required to connect the relay to an RS-485 network. For details on connecting to serial Port, see “Communication Port Details”

Complete details regarding the Modbus protocol emulation and data point lists can be found in “Modbus RTU Communication Protocol” in Appendix E’ on page Appendix E-1

IEC 103 Protocol The relay supports IEC 60870-5-103 SCADA connection. IEC 103 is available via a RS485 serial link.

Serial IEC 103 communications can be utilized exclusively via serial com Port 2. Port 2 (RS485 port) is located on the rear of the relay. An external RS-485 to RS-232 converter can be used to connect the relay to an RS- 232 network. For details on connecting to serial Port, see “Communicating with the Relay Intelligent Electronic Device (IED)” and “Communication Port Details”. Complete details regarding the IEC 103 protocol emulation and data point lists can be found in “Event Messages” in Appendix D.

12. Data Communications


Offliner SCADA Configuration

Details on using the Offliner software are available in “To Install Software on the Computer” on page -xiii. Details on downloading a completed settings file to the relay are available in “Sending a New Setting File to the Relay” on page 6-6.

Open the Offliner application according to the instructions found in the indicated section and highlight the SCADA Communication selection. The screen appears as follows.

Figure 12.1: SCADA Communications

The configuration of SCADA communication parameters via the Offliner application is very intuitive. Several settings options are progressively visible and available depending on other selections. As noted before, there is no field to configure the number of data and stop bits. These values are fixed as follows:

• Modbus Serial – 7 data bits, 1 stop bit

• IEC 60870-5-103 Serial – 8 data bits, 1 stop bit

12. Data Communications


12.3 IEC 61850 Communication The IEC 61850 Standard

The Smart Grid is transforming the electrical power industry by using digital technology to deliver electricity in a more intelligent, efficient and controlled way. Embedded control and communication devices are central to this transformation by adding intelligent automation to electrical networks.

The IEC 61850 standard defines a new protocol that permits substation equipment to communicate with each other. Like many other well-known manufacturers, ERLPhase Power Technologies is dedicated for using IEC 61850-based devices that can be used as part of an open and versatile communications network for substation automation.

The IEC 61850 defines an Ethernet-based protocol used in substations for data communication. Substations implement a number of controllers for protection, measurement, detection, alarms, and monitoring. System implementation is often slowed down by the fact that the controllers produced by different manufacturers are incompatible, since they do not support the same communication protocols. The problems associated with this incompatibility are quite serious, and result in increased costs for protocol integration and system maintenance.

Implementation Details

The F-PRO conforms to IEC 61850-8-1, commonly referred to as Station Bus Protocol. Implementation includes the following documents “IEC 61850 Implementation” in Appendix L’ on page Appendix L-1:

• Protocol Implementation Conformance Statement

• Model Implementation Conformance Statement

• Tissues Conformance Statement Note that unit’s IP address can be used on the IEC61850 client side for unique unit identification instead of a physical device “PD Name”. The publisher configuration is fixed and defined in the ICD file and available for reading to any IEC61850 client. Subscriber functionality is also fixed and supported for the Virtual Inputs only.


13 Offliner Settings Software 13.1Introduction

This section deals with the Offliner Settings software. The Offliner settings software is used to create relay settings on a personal computer. Offliner provides an easy way to view and manipulate settings. Offliner supports all firmware versions and has the capability to convert older setting versions into newer ones.

In this section, first, the Offliner features are presented. The menu and tool bar are discussed and this is followed by a description of the Graphing and Protection functions.

Next, the Offliner feature, for handling backward compatibility with previous software versions is described. Also described are methods of converting a Settings File, sending a new Settings File to the relay and creating a Settings File from an older version of the software.

Next, the RecordBase View and RecordGraph to analyze the records from a relay are described.

This is followed by a lengthy description of the main branches from the Tree View. This section provides all information for Identification, System Parameters, SCADA Communication, IEC 103 Configuration, SCADA Settings summary, Record Length, Setting Groups, ProLogic, Breaker Logic, LED Matrix, Output Matrix, reset type for Led and output contact and Settings summary.

Finally, a description of how the settings on the relay can be viewed through the RecordBase View analysis software is provided.

Figure 13.1: Opening Screen

Setting Tree Setting area

13. Offliner Setting Software


undo

13.2Offliner Features

The Offliner software includes the following menu and system tool bar.

Table 13.1: Windows Menu

Windows Menu Sub Menu Comment

Document Menu (Icon)

Restore Restores active window to previous size

Move Allows user to move active window

Size Allows user to resize active window

Minimize Makes the active window as small as possible

Maximize Makes the active window as large as possible

Close Closes the active Offliner setting document

Next Switches to the next open Offliner setting file, if more than setting file is being edited

new

open

save

cut

copy

paste

Help topics about F-PRO settings

Copy graph

Copy setting gropup

print

Show or hide Left Hand side tree

About




File New Opens up a default setting file of the most recent setting version

Open Open an existing setting file

Close Closes the active Offliner setting document

Save Saves the active setting file

Save As Saves the active setting file with a new name or to a new location

Print Prints graphs or setting summary depending on active screen

Print Preview Provides a print preview of the setting summary

Print Setup Changes printers or print options

1 – 8 The 8 most recently accessed setting files

Exit Quits the program and prompts to save the document if it is not saved

Edit Undo Undo last action

Cut Cut the selection and puts it on the clipboard

Copy Copy the selection and puts it on the clipboard

Paste Insert clipboard contents

Copy Graph Copy the graph for the active screen to the clipboard

Copy Setting Group Copy values from one Setting Group to another

Tools Options Print settings for only enabled

Settings Summary sheet

Window Cascade Cascades all open windows

Tile Tiles all open windows

Hide/Show Tree If this option is checked then the LHS Tree view will be hidden

1 – 9, More Windows Allows access to all open Offliner setting files. The active document will have a check beside it

Help User Manual On clicking Displays the user manual

About Offliner Displays the Offliner version




Toolbar New Create a new document of the most recent setting version

Open Open an existing document

Save Save the active document

Cut Cut selection

Copy Copy the selection

Paste Insert clipboard contents

Undo Undo last action

Copy Graph Copy the graph for the active screen to the clipboard

Copy Setting Group Brings up the Copy Inputs dialog box

Print Prints Graphs or the setting summary, depending on which seen is selected

Show/Hide LHS Tree If this option is checked then the LHS Tree view will be hidden or shown

About Displays the Offliner version

13.3Offliner Keyboard Shortcuts

The following table lists the keyboard shortcuts that Offliner provides.

Table 13.2: Keyboard Shortcuts

Ctrl+N Opens up a default setting file of the most recent setting version

Ctrl+O

Open an existing setting file

Ctrl+S

Saves the active setting file

Ctrl+Z

Undo

Ctrl+X

Cut

Ctrl+C

Copy

Ctrl+V

Paste

Ctrl+F4

Closes the active Offliner setting document

Ctrl+F6

Switches to the next open Offliner setting file, if more than one setting file is being edited

F6

Toggles between the LHS Tree view and HRS screen

F10, Alt

Enables menu keyboard short-cuts

F1

Displays the user manual



Graphing Protection Functions

Grid On/Grid Off The graph can be viewed with the grid on/off by clicking the Grid On / Grid Off button. A right-click on the trace of the curve gives you the x and y coordinates.

Print Graph To print a particular graph, click the Print Graph button.

Refresh This button will manually refresh the graph if it has been zoomed. Zoom on Graphs Graphs can be zoomed to bring portions of the traces into clearer display. Left- click on any graph and drag to form a small box around the graph area. When you release the mouse, the trace assumes a new Zoom position determined by the area of the zoom coordinates. To undo the zoom on the graph, click the Refresh button.

13.4Handling Backward Compatibility

Offliner Settings displays the version number in the second pane on the bottom status bar. The settings version is a whole number (v1, v2, v3, v4, etc.).

The Offliner Settings is backward compatible. Open and edit older settings files and convert older settings files to a newer version. Offliner Settings handles forward conversion only; it converts an older setting file to a newer setting file

Converting Settings File

1. Open the setting file you wish to convert. 2. In the File menu, select Convert to... and then select the version x (where x is the newer version). A dialog box pops up prompting Offliner for a new file name. Use either the same file name or enter a new file name. The conversion process inserts default values for any newly added devices in the new setting file. When the conversion is complete, Offliner Settings displays the new file.



Figure 13.3: Converting Setting Files

Sending a New Setting File to the Relay

1. Make sure the settings version and the serial number of the relay in the setting file match. The relay will reject the setting file if either the serial number or the settings version does not match.

A “serial number discrepancy” message may appear. This is to ensure that you are aware of the exact relay in which settings are to be loaded. If this happens, check the relay serial number using the terminal mode ID menu item. Type this serial number into the F- PRO Serial No.box in the Identification tab display area of Offliner Settings. Alternately you may check the Ignore Serial Number check box to bypass serial number supervision.

2. Check the serial number and the settings version of the relay. The Device Serial Number and Required Settings Version on the Identification screen indicate the serial number and the settings version of the relay.

Creating a Setting File from an Older Version

1. Offliner Settings displays a default setting file on start up showing the settings version in the bottom status bar. As an example F-PRO Offliner is shipped with a set of default sample files of older settings versions. The sample file is “v1 sample.fps”. The sample file contains default values of an older settings version. For a new installation these sample files are placed in the default directory C:\Program Files\ERLPhase\F-PRO Offliner Settings or you can choose the path during the Offliner software installation. If an older version of F-PRO Offliner was previously installed on your PC, then the default directory may be C:\Program Files\APT\F- PRO Offliner Settings. 2. Open a sample file of the desired version. Use File/Save As to save the sample file to a new file name. Then edit t he s etting file and the serial number, save it and load it into the relay.



13.5 RecordBase View Software

Figure 13.4: RecordBase View

Use RecordBase View to analyze the records from a relay.

1. Set the receive directory on your RCP to point to a convenient directory on your PC’s hard disk or network. For example with Relay Control Panel, Select Add New>Folder Placement>Browse. It will be by default in this path C:\Documents and Settings\user\My Documents\ERL\Relay Control Panel\appsupp\Records.

2. Select one or more records on the relay using the List function in the Terminal Mode’s Records menu.

3. Initiate transfer of the selected record by selecting GET from Relay tab in the RCP or by double clicking the selected record.

4. Start the RecordBase View program and use the ADD tab to open the downloaded record files located in the receive directory specified in step 1.

For further instructions refer to the RecordBase View Manual at the back of the printed version of this manual.



13.6 Main Branches from the Tree View

This section will describe the tree view, which provides access to the various setting screens. This section will not describe individual settings, but will provide a general description of where to find the individual settings. For a detailed description of the individual settings see Chapter 4.

Figure 13.5: Relay identification

In the LHS Menu Tree there are a series of menu headings that may have sub menus associated with them. Clicking on an item in the left hand side tree view will display its corresponding menu in the RHS view. Similarly, the user can use the arrow keys to scroll through the menu tree.

LHS Menu Tree RHS – information relating to specific menu item accessed by LHS menu or top tabs

Unique Relay Serial Number Nominal system frequency set at either 50Hz or 60Hz



Identification

The first screen presents all the menu items in the left menu tree. Access the menu items by clicking the tabs at the top of the screen or the item on the leftmenu tree.

Table 13.3: Relay Identification

Relay Identification

Identification

Settings Version Indicates the settings version number, fixed.

Ignore Serial Number Bypass serial number check, if enabled.

Serial Number Available at the back of each relay.

Relay ID User-defined up to 16 characters.

Nominal System Frequency 60 Hz or 50 Hz

Comments User-defined up to 78 characters.

Setting Software

Setting Name User-defined up to 16 characters.

Date Created/Modified Indicates the last time settings were entered.

Station

Station Name User-defined up to 16 characters.

Location User-defined up to 16 characters.

Bay Name User-defined up to 16 characters.

Important Note

Nominal CT Sec. Current can be set to either 5 A or 1 A. Nominal System Frequency can be set to either 60 Hz or 50 Hz. Ensure setting selection matches that of target F-PRO

The serial number of the relay must match the one in the setting file, or the setting will be rejected by the relay. This feature ensures that the correct setting file is applied to the right relay.

Choose to ignore the serial number enforcement in the identification screen by checking the Ignore Serial Number check box. The relay only checks for proper relay type and setting version if the ignore serial number has been chosen, requires relay firmware version 1.0 or greater.



External Inputs

Figure 13.6: External Inputs

The External Inputs screen allows you to define meaningful names for four external inputs.

Table 13.4: External Input Names

1 to 4 User-defined



Output Contacts

Figure 13.7: Output Contacts

The Output Contact Names screen allows you to define meaningful names to the 8 output contacts.

Table 13.5: Output Contact Names

Outputs 1 to 8 User-defined



Virtual Inputs

Figure 13.8: Virtual Inputs

Table 13.6: Virtual Inputs

Virtual Inputs 1 to 30 User-defined

The relay can control its internal functions and connected devices both locally and remotely. Thirty general purpose logic points are accessible via IEC 103 and the terminal UI. The 30 virtual inputs are individually controlled and include a set, reset and pulse function. The latch state is retained during setting changes and relay power down conditions. The 30 virtual inputs conform to IEC 103 standards. Use the IEC 103 functions such as SBO (Select Before Operate), Direct Operate, or Direct Operate with no acknowledge to control virtual inputs.

Use virtual inputs to:

• Control circuit breakers

• Enable or disable reclosing

• Enable or disable under-frequency load shedding

• Change setting groups

• Provide interlocking between local/remote supervisory control



Setting Groups

Figure 13.9: Setting Groups

The Setting Group Names screen allows you to define meaningful names to the 4 setting groups.

Table 13.7: Setting Groups

Setting Groups 1 to 4 User-defined



System Parameters

Figure 13.10: System Parameters CT Turns Ratio and PT Turns Ratio

The CT and PT ratios are specified for the analog inputs. All CT and PT ratios are specified with a ratio relative to one (i.e. X amps to 1A and X volts to 1V). The CT secondary current can be chosen as 1A or 5A and the VT secondary connection can be chosen as Phase to Neutral or Phase to Phase. The relay internally summates the three phase currents for the neutral current measurement

Table 13.8: System Parameters

CT Configuration

Phase CT Sec. Current 1A/ 5A

Phase CT ratio 1.0 to 30000.0

VT Configuration

Phase VT Sec. Voltage 40.0 to 160.0 V

Phase VT ratio 1.0 to 10000.0

Phase VT sec. Connection Ph-N/Ph-Ph



Record Length

Figure 13.11: Record Length

The relay has recording and logging functions to analyze faults and to review the operation of the overall protection scheme. This item identifies the amount of time for which each fault is recorded. The prefault time is can be varied from 5-25 cycles.

Table 13.9: Record Length

Fault Record Length 1 to 20 seconds

Pre-trigger 0.10 to 0.50 seconds



SCADA Communication

Figure 1312 SCADA communication



SCADA Summary

Figure 13.13 SCADA summary

The relay address can be set from 1 to 254 for serial mode of communication either Modbus RTU / Modbus ASCII / IEC103 Slave and also possible to set baud rate & parity. The relay IP address can be set for the purpose of relay configuration purpose as well as IEC61850 communication (SCADA).



Setting Groups

Figure 13.14: Setting Groups Comments

The relay has four setting groups (1 to 4). You can change all relay setting parameters except the physical connections such as input or output parameters in each setting group. Use any one of the 4 available Group change inputs per group. Logic Statements per setting group to perform Setting Group changes.



Protection Functions

For detailed descriptions of the protection functions see “Protection Functions and Specifications” on page 11-1.

Figure 13.15: Protection Functions



ProLogic

Figure 13.16: ProLogic

Apply ProLogic to multiple inputs to create an output based on qualified inputs. ProLogic enables up to 20 ProLogic control statements and programs those logics to output contacts. You can name the function being created and set a pickup and dropout delay. Start with input A by selecting any of the relay functions using the list for up to 5 possible inputs. Put these inputs into AND/ OR, NAND/NOR, XOR/NXOR and LATCH logic by clicking on the gate. Invert the input by clicking on the input line.

The output of ProLogic 1 can be nested into ProLogic 2 and so on. If desired, you can illuminate the front target LED on operation of this function by disabling this feature in output matrix. The operations of the ProLogic statements are logged on the events listing. The status of the Prologic can be seen from the record graph by selecting the recorder in the output matrix.



Output Matrix

Figure 13.17: Output Matrix 1

The output contact matrix determines which function initiates which output contact of the relay. All output relays have a fixed 0.1 second stretch time. Functions can also initiate fault recording, recloser blocking, recloser initiation and/or breaker failure initiation.

For a particular function to operate correctly, it must be enabled and must also have its logic output assigned to at least one output contact if it is involved in a tripping function.

Print the entire output matrix by selecting File>Print Summary. This printout is produced on two pages.

`



Relay Reset The output contact (Relay Output) can be configured as either self reset or hand reset

Self Reset: If Relay reset is configured as Self reset, the relay Output Contact will reset as and when the respective configured Logic Output resets. (Configured in Relay Output Matrix)

Hand Reset: If Relay reset is configured as hand reset, though the configured Logic output resets. The Relay Output contact will not resets on its own, reset button needs to be pressed or respective Configured External Input has to be made High(Configured in Input Matrix) to make the Output Contact Low.

Figure 13.18: Relay Reset

`



Target LED Reset The LEDs can be configured as either self reset or hand reset.

Self Reset: If LED is configured as Self reset, the LED will reset as and when the respective configured Logic Output resets. (Configured in LED Output Matrix)

Hand Reset: If LED is configured as hand reset, Though the configured Logic output resets. The LED will not resets on its own, reset button needs to be pressed or respective Configured External Input has to be made High(Configured in Input Matrix) to make the LED Low.

Figure 13.19: Target LED Reset



Input Matrix External Input(Static Input) can be configured to Block Protection function, Reset LED and Relay Output Contact(for Hand reset) and to change Setting Group.

Figure 13.20: Input matrix



Settings Summary

Figure13.21: Settings Summary

Select Settings Summary to view and print the relay settings in text form. For details see “IED Settings and Ranges” in Appendix B. Print the entire Settings Summary by selecting File>Print Summary.



13.7 Settings from a Record The settings on the relay at the time of a recording are included in every record and can be viewed through the Record Base View analysis software. While viewing a recording in Record Base View, select the View Setting button to display the settings. Record Base View will automatically launch F-PRO Offliner to display the settings in summary form.

If the record contains Setting Groups, the Offliner displays all Setting Groups in the summary. Bold text in the tree view indicates an active Setting Group (the Setting Group used at the time the record was captured). The setting summary is read-only. To edit the setting file associated with the summary, you must use File/Save As to save the summary to a file. Then close the summary screen and open the setting file for editing.

Fig 13.22: Setting Summary


14 Installation 14.1 Introduction

This section details the installation of the F -PRO relay. The section covers the physical mounting, AC and DC wiring and the Communication wiring.

14.2 Physical Mounting

Standard E6

The relay is 159 mm high and approximately 216.5mm deep. The standard relay is designed for a 150 mm width. A complete mechanical drawing is shown, for details see “Mechanical Drawings” in Appendix G

To install the relay the following is needed:

• E6 cutout (159*150 mm)

• M4 screws & Nuts

14.3 AC and DC Wiring

For details see “AC Schematic Drawing” in Appendix H and “DC Schematic Drawing” in Appendix I.

14.4 Communication Wiring

EIA-485 RJ-45 USB

IRIG-B Wiring

The relay’s serial port (Com port-2) is a EIA RS-485 Data Communications Equipment (DCE) device. This allows them to be connected directly to other relays in parallel and communicated to a PC serial port with a standard straight-through male-to-female serial cable with RS485 to RS232 convertor. RS 485 cable can work for maximum 1.2kM with single IED . Shielded cable is recommended, for pin -out see “Communication Port Details” on page 9-10. There is one rear100BASE-T Ethernet Port 120 with RJ-45 receptacle. Use CAT5 or CAT5e straight. The re ar Ethernet Port 120 may also be configured as a 100BASE- Fx optical port. The maximum distance that cable support is 100meters (328 feet) Com Port 1 on the fr ont panel is a standard USB-B connector. This port is the Maintenance port of the relay. This is a U SB 2.0 Full Speed interface and can be connected to a PC w ith a standard USB peripheral cable (A style to B style). IRIG-B on the rear panel accepts both modulated and unmodulated IRIG -B standard time signals with or without the IEEE 1344 extensions. T he IRIG-B connector on the back of the relay is BNC type.

F295-03-17R1.10 F-PRO User Manual Appendix A-1

15 Appendix A IED Specifications

F-PRO , Model 295 Specifications

Item Quantity/Specs Note

General:

Nominal Frequency 50 or 60 Hz

Operate Time less than 30ms

Including output relay operation

Memory Settings and records are stored in non-volatile memory

Records are stored in a circular buffer

Power Supply 19-155Vdc, 80-350Vdc, 90 – 240 Vac Power Consumption: 5 – 6 VA (ac) 4.5 – 5 W (dc)

Protection Functions:

IEEE Function 27/59DT1 to 6, 27/59IT1 to 2,24DT1 to 2, 24IT, 47DT1 to 2, 47IT, 59NDT1 to 2, 59NIT, 59GDT1 to 2, 59GIT, 81U/01 to 8, 81R1 to 4, 25/27/29, 64/50SEF-1 to 2, 64/51SEF1 to 2, 60VTS, THD-1 to 2, 74TCS-1 to 2

1 x 3-phase current inputs 1 x 3-phase voltage input f or direction

ProLogic 20 statements per setting group 5 inputs per ProLogicTM statement, /statement

Setting Groups 4

Recording:

Transient (Fault) 32 s/c oscillography of all analog and exte rnal input digital channels

User-configurable 1 to 20 seconds Record length and 0.1 to 0.5 pre-fault length

Events 1000 events circular log with 1ms resolution I*I*t: trigger by user defined event an d/or trip

A compressed event record can be created 1000 events with manual trigger.

A/D Resolution

6 bits, 65536 counts full scale peak-peak

Record Capacity 20 records of transient and optionally event records.

Appendix A-2 F-PRO User Manual F295-03-17R1.10

F-PRO Model Specifications

Input & Output:

Analog Voltage Inputs 1 set of 3-phase voltage inputs (3 voltage channels), 1 voltage input to measure neutral voltage and 1 voltage input to synchronization

Nominal Voltage – across input channel Full Scale/Continuous Maximum full-scale rating Thermal rating Burden

Vn=63.5Vrms(110Vrms L-L) 2xVn=127Vrms(230Vrms L-L) 4xVn = 254Vrms(440Vrms L-L) or 3 Seconds 3xVn = 190Vrms(330Vrms L-L) for 10 seconds <0.03 VA @ Vn

1 current input to measure SEF

Nominal Current Full Scale/Continuous Maximum full-scale rating Thermal rating Burden

In = 1 Amp or 5 Amps 3x In = 3 Amps or 15 Amps 30x In for 1 second symmetrical 300 Amps for 1 second <0.25 VA @ 5 Amps

Amplitude measurement accuracy +/-1% for 45 to 55Hz +/-1% for 55 to 65Hz

Analog Sampling Rate 32 samples/cycle for recording 8 samples/cycle for protection

Records upto 8th harmonic

External Inputs (digital) 4 isolated inputs Optional 24/30, 48/50, 110/125, 220/250 Vdc nominal, externally wetted

Isolation 2 KV optical isolation

External Input Turn-on Voltage 24Vdc range = 14 to 20

48Vdc range = 24 to 40



Output Relays (contacts) 8 programmable outputs (6NO +2CO) Externally wetted Make: 30 A as per IEEE C37.90 Carry: 8 A Break: 0.9 A at 125 Vdc resistive

0.35 A at 250 Vdc resistive

Virtual Inputs 30 Virtual Inputs

Interface & Communication:

Front Display 2 line 16 character Alphanumeric LCD

Front Panel Indicators 8 LEDs: 7 programmable, 1 fixed

Front User Interface USB port Full Speed USB 2.0 480Mbps

Rear User Interface LAN Port 1: 100BASE Copper

one Serial RS-485 port (2400bps to 57600bps)

Copper: RJ-45, 100BASE-T

Com port

SCADA Interface IEC61850 (Ethernet) 100 Mbps or Modbus (RS-485) or IEC 60870-5-103(RS-485)

Rear port

Time Sync IRIG-B, BNC connector

Modulated or unmodulated


Self Checking/Relay Inoperative 2CO contact configurable Closed NC when relay inoperative


Overall F-PRO Accuracies

Current ±2.5% of inputs from 0.1 to 1.0 x nominal current (In)

±1.0% of inputs from 1.0 to 4.0 x nominal current (In)

Voltage ±1.0% of input of nominal voltage (Vn)

Timers ±2.5 % of set value plus 1.00 to 1.50 cycles of inherent delay

Inverse Overcurrent Timers ±2.5% or ±1 cycle of selected curve

Definite Overcurrent Timers ±2.5% or ±1 cycle non-directional

±2.5% or ±1.5 cycle directional


Physical:

Weight 4.55 Kg

Dimensions

E6 case : 17.7cm High x 15.5cm W ide x 24.75cm Depth

Time Synchronization and Accuracy

External Time Source Synchronized using I RIG-B input (modulated or unmodulated) 1PPM

In the absence of an external time source, the relay maintains time with a maximum 20ppm at a constant temperature of 25C. The relay can detect loss of re-establishment of external time source and aut omatically switch between internal and external time.



Environmental:

Ambient Temperature Range -40°C to 85°C for 16 hours -40°C to 70°C continuous

IEC 60068-2-1/IEC 60068-2-2 LCD contrast impaired for temperatures below -20°C and above 70° C Humidity Up to 95% without condensation IEC 60068-2-30

Insulation Test (Hi-Pot)

Power supply, analog inputs, external inputs, output contacts – 2 kVrms, 50/60 Hz, 1 minute

IEC 60255-5, ANSI/IEEE C37.90

Electrical Fast Transient Tested to level 4 - 4.0 kV 2.5/5 kHz on Power and I/O lines

ANSI/IEEE C37.90.1, IEC/EN 60255- 22-4, IEC 61000-4-4

Oscillatory Transient Test level = 2.5kV ANSI/IEEE C37.90.1, IEC/EN 60255- 22-1, IEC61000-4-12 Level 3

RFI Susceptibility 10 V/m modulated, 35 V/m unmodulated ANSI/IEEE C37.90.2, IEC 60255-22-3, IEC 61000-4-3 Level 3

Conducted RF Immunity 150 kHz to 80 MHz IEC 60255-22-6 / IEC 61000-4-6 Level 3

Shock and Bump 5 g and 15 g IEC 60255-21-2, IEC/EN 60068-2-27: Class 1

Sinusoidal Vibration 10 Hz to 150 Hz, 1.0 octave/min, 40 sweeps IEC/EN 60255-21-1, IEC/EN 60068-26, Class 1

Voltage Interruptions 200 ms interrupt IEC 60255-11 / IEC 61000-4-11

Detailed Environmental Tests

Test Description

Test Level Type Test

Test Points

CISPR11, ClassA RF emissions Enclosure ports Class A: 30 - 1000 MHz

Conducted emissions ac/dc power ports Class A: 0.15 - 30 MHz

IEC/EN 61000-3-2 Power line harmonics ac power port Class D: max.1.08, 2.3, 0.431.14, 0.3, 0.77, 0.23 A.... for 2nd to nth harmonic

IEC/EN 61000-3-3 Power line fluctuations ac power port THD/ 3%; Pst <1., Plt < 0.65

dc power port N/A

IEC/EN 61000-4-2 Electrostatic Discharge Immunity

Enclosure contact +/- 8 kV

Enclosure air +/- 15 kV

IEC/EN 61000-4-3 Radiated RFI Enclosure ports 10 V/m: 80 - 1000 MHz

IEC/EN 60255-22-3

IEEE C37.90.2 Radiated RFI Enclosure ports 35 V/m: 25 - 1000 MHz


IEC/EN 61000-4-4 Electrical fast transient / Burst Immunity

Signal ports +/- 4 kV @2.5 kHz

IEC/EN 60255-22-4 ac power port +/- 4 kV

IEEE C37.90.1 dc power port +/- 4 kV Earth ground ports +/- 4 kV

IEC/EN 61000-4-5 Surge Immunity Communication ports +/- 1 kV L-PE

IEC/EN 60255-22-5 Signal ports +/- 4 kV L-PE, +/-2 kV L-L ac power port +/- 4 kV L-PE, +/-2 kV L-L dc power port +/- 2 kV L-PE, +/-1 kV L-L

IEC/EN 61000-4-6 Induced (conducted) RFI Signal ports 10 Vrms: 0.150 - 80 MHz IEC/EN 60255-22-6 ac power port 10 Vrms: 0.150 - 80 MHz dc power port 10 Vrms: 0.150 - 80 MHz Earth ground ports 10 Vrms: 0.150 - 80 MHz IEC/EN 60255-22-7 Power frequency Binary input ports: Class A Differential = 150 Vrms Common = 300 Vrms IEC/EN 61000-4-8 Magnetic leld Enclosure ports 40 A/m continuous, 1000 A/m for 1 s IEC 60255-11 Voltage dips & interrupts dc power port 100% reduction for up to 25 ms IEC/EN 61000-4-12 Damped oscillatory Communication ports 1.0 kV Common, 0 kV Diff IEC/EN 60255-22-1 Signal ports 2.5 kV Common, 1 kV Diff ac power port 2.5 kV Common, 1 kV Diff dc power port 2.5 kV Common, 1 kV Diff IEEE C37.90.1 Oscillatory Signal ports 2.5 kV Common, 0 kV Diff ac power port 2.5 kV Common, 0 kV Diff dc power port 2.5 kV Common, 0 kV Diff IEC/EN 61000-4-16 Mains frequency voltage Signal ports 30 V continuous, 300 V for 1s ac power port 30 V continuous, 300 V for 1s IEC/EN 61000-4-17 Ripple on dc power supply dc power port 12%

Note: The F-PRO is available with1 or 5 amp current input.


15.1 IDMTL Element Operating Time Curves

Figure A.1: Represents the operating curve for IDMTL IEC very inverse curve.

Figure A.2: Represents the operating curve IDMTL IEC Standard inverse curve 3.


Figure A.3: Represents the operating curve for IDMTL IEC Standard inverse curve 1.

Figure A.4: Represents the operating curve for IDMTL IEC Long inverse curve


Figure A.5: Represents the operating curve for IDMTL IEC Extremely inverse curve.

Figure A.6: Represents the operating curve for IDMTL IEEE Moderately inverse curve.


Figure A.7: Represents the operating curve for IDMTL IEEE very inverse curve.

Figure A.8: Represents the operating curve for IDMTL IEEE Extremely inverse curve.

Appendix B-1 F-PRO User Manual F295-03-17R1.10

16. Appendix B IED Settings and Ranges

16 Appendix B IED Settings and Ranges

When a setting has been completed in the F -PRO Offliner Settings software, it can be printed along with the ranges available for these settings. This is a view only option, that is, if you want to change settings you must go back i n to the settings portion dealing with that setting to make changes. The summary is however, a quick way of having a look at all the settings in a very compact form.

The top part of the settings summary identifies the date that the settings were done, the relay identification, the station that the relay is applied and t he location.

The setting summa ry provides a list of all the current and voltage analog input quantity names used for line protection and used for recording. External Inputs and Output contact names are also identified on this summary.

Name Symbol/Value Unit Range

Relay Identification

Settings Version 1

Ignore Serial Number Yes

Serial Number FPRO-295-XX0000000

Relay ID RelayID

Nominal System Frequency 50 Hz

Standard I/O 4 External Inputs and 8 Output Contacts

Comments Comments

Setting Name Settings Name

Date Created/Modified 2016-09-28 12:05:40

Station Name Station Name

Location Location

Bay Name Bay Name

External Input Names

EI 1 EI 1

EI 2 EI 2

EI 3 EI 3

EI 4 EI 4

Output Contact Names

Output 1 RL 1

Output 2 RL 2

Output 3 RL 3

Output 4 RL 4

Output 5 RL 5

Output 6 RL 6

Output 7 RL 7

Output 8 RL 8


F295-03-17R1.10 F-PRO User Manual Appendix B-2


Virtual Input Names

VI 1 VI 1

VI 2 VI 2

VI 3 VI 3

VI 4 VI 4

VI 5 VI 5

VI 6 VI 6

VI 7 VI 7

VI 8 VI 8

VI 9 VI 9

VI 10 VI 10

VI 11 VI 11

VI 12 VI 12

VI 13 VI 13

VI 14 VI 14

VI 15 VI 15

VI 16 VI 16

VI 17 VI 17

VI 18 VI 18

VI 19 VI 19

VI 20 VI 20

VI 21 VI 21

VI 22 VI 22

VI 23 VI 23

VI 24 VI 24

VI 25 VI 25

VI 26 VI 26

VI 27 VI 27

VI 28 VI 28

VI 29 VI 29

VI 30 VI 30

Setting Group Names

Setting Group 1 SG 1







System Parameters VT Configuration

Phase VT Sec.voltage 63.5 V 40.0 to 160.0

Phase VT Ratio 100.0 - 1.0 to 10000.0

Neutral VT Sec.voltage 63.5 V 40.0 to 160.0

Neutral VT Ratio 100.0 - 1.0 to 10000.0

Voltage Compensation 0.0 V 0.0 to 15.0

Sync VT Sec.voltage 63.5 V 40.0 to 160.0

Sync VT Ratio 100.0 - 1.0 to 10000.0

CT Configuration

SEF CT Sec.current 1A A

SEF CT Ratio 100.0 - 1.0 to 30000.0

Disturbance Record Record Length 1 s 1 to 20

Pre Trigger 0.25 s 0.10 to 0.50

SCADA Communication Relay Address 0 1 to 254

Mode

Serial Modbus RTU

Modbus ASCII/Modbus RTU / IEC103 Slave

Baud Rate 9600 2400 - 57600 Parity None Odd/Even/None

Network IP Address 192.168.0.63

Subnet Mask 255.255.255.0

Gateway 192.168.0.1

Setting Group 1 [SG 1] Setting Group Comments: No Comments Protection Summary

27/59DT-1 Disabled 27/59DT-2 Disabled 27/59DT-3 Disabled 27/59DT-4 Disabled 27/59DT-5 Disabled 27/59DT-6 Disabled 27/59IT-1 Disabled 27/59IT-2 Disabled 24DT-1 Disabled




24DT-2 Disabled 24IT Disabled 47DT-1 Disabled 47DT-2 Disabled 47IT Disabled 59NDT-1 Disabled 59NDT-2 Disabled 59NIT Disabled 59GDT-1 Disabled 59GDT-2 Disabled 59GIT Disabled 81U/O-1 Disabled 81U/O-2 Disabled 81U/O-3 Disabled 81U/O-4 Disabled 81U/O-5 Disabled 81U/O-6 Disabled 81U/O-7 Disabled 81U/O-8 Disabled 81R-1 Disabled 81R-2 Disabled 81R-3 Disabled 81R-4 Disabled 25/27/59 Disabled 64/50SEF-1 Disabled 64/50SEF-2 Disabled 64/51SEF-1 Enabled 64/51SEF-2 Enabled 60VTS Enabled THD-1 Enabled THD-2 Enabled 74TCS-1 Disabled 74TCS-2 Disabled U/V Enabled O/V Enabled U/F Enabled O/F Enabled S/I Enabled




27/59DT - Phase Definite Time Under/Over Voltage

27/59DT-1 Disabled

Function Selection UV

Measurement Input Fundamental

Input Type Ph-N

Output Gate AND

Pickup V 51.0 V 3.0 to 250.0

Hysteresis 1 % 1 to 80

Pick DTL Delay 0.20 s 0.00 to 999.99

Reset DTL Delay 0.00 s 0.00 to 999.99

VTS Blocking Enable

27/59DT-2 Disabled



Input Type Ph-N

Output Gate AND

Pickup V 51.0 V 3.0 to 250.0




VTS Blocking Enable

27/59DT-3 Disabled



Input Type Ph-N

Output Gate AND

Pickup V 51.0 V 3.0 to 250.0







VTS Blocking Enable

27/59DT-4 Disabled



Input Type Ph-N

Output Gate AND

Pickup V 51.0 V 3.0 to 250.0




VTS Blocking Enable

27/59DT-5 Disabled



Input Type Ph-N

Output Gate AND

Pickup V 51.0 V 3.0 to 250.0




VTS Blocking Enable

27/59DT-6 Disabled



Input Type Ph-N

Output Gate AND

Pickup V 51.0 V 3.0 to 250.0







VTS Blocking Enable

27/59IT - Phase Inverse Time Under/Over Voltage

27/59IT-1 Disabled



Input Type Ph-N

Output Gate AND

Pickup V 55.0 V 3.0 to 250.0


Curve Type IEC Standard Inverse

TMS 1.00 - 0.01 to 10.00



A 1.0 - 0.1 to 50.0

B 0.0 - 0.0 to 10.0

p 1.0 - 0.1 to 10.0

VTS Blocking Enable

27/59IT-2 Disabled



Input Type Ph-N

Output Gate AND

Pickup V 55.0 V 3.0 to 250.0






TMS 1.00 - 0.01 to 10.00



A 1.0 - 0.1 to 50.0

B 0.0 - 0.0 to 10.0

p 1.0 - 0.1 to 10.0

VTS Blocking Enable

24DT - Definite Time Overflux

24DT-1 Disabled


Input Type Ph-N

Output Gate AND

Pickup V/F 1.10 pu 1.00 to 3.00




VTS Blocking Enable

24DT-2 Disabled


Input Type Ph-N

Output Gate AND

Pickup V/F 1.10 pu 1.00 to 3.00




VTS Blocking Enable

24IT - Inverse Time Overflux

24IT Disabled


Input Type Ph-N




Output Gate AND

Pickup V/F 1.10 pu 1.00 to 1.50/2.00/3.00


Curve Type IEC Extremely Inverse-1

TMS 1.00 - 0.01 to 10.00

Pickup DTL Delay 10.00 s 0.00 to 999.99

Reset Delay DTL Reset DTL Delay 0.00 s 0.00 to 99.90

Constant A: 9.50 - -

Constant B: 1.00 - 0.01 to 10.00

Constant C: 0.000 - -

Constant K: 0.00 - -

Inverse K: 0.10 - 0.01 to 99.90

X1 1.10 pu 1.00 to 3.00 X2 1.15 pu 1.00 to 3.00

X3 1.20 pu 1.00 to 3.00

X4 1.25 pu 1.00 to 3.00

X5 1.30 pu 1.00 to 3.00

X6 1.35 pu 1.00 to 3.00

X7 1.40 pu 1.00 to 3.00

Y1 70.00 s 0.05 to 9999.99

Y2 60.00 s 0.05 to 9999.99

Y3 50.00 s 0.05 to 9999.99

Y4 40.00 s 0.05 to 9999.99

Y5 30.00 s 0.05 to 9999.99

Y6 20.00 s 0.05 to 9999.99

Y7 10.00 s 0.05 to 9999.99

VTS Blocking Enable 47DT - Negative Sequence Definite Time Over Voltage 47DT-1 Disabled

Measurement Input Fundamental Pickup V2 30.0 V 1.0 to 150.0




VTS Blocking Enable




47DT-2 Disabled


Pickup V2 30.0 V 1.0 to 150.0




VTS Blocking Enable

47IT - Negative Sequence Inverse Time Over Voltage

47IT Disabled


Pickup V2 25.0 V 1.0 to 150.0



TMS 1.00 - 0.01 to 10.00



A 1.0 - 0.1 to 50.0

B 0.0 - 0.0 to 10.0

p 1.0 - 0.1 to 10.0

VTS Blocking Enable

59NDT - Derived Residual Definite Time Over Voltage

59NDT-1 Disabled


Pickup VN 10.0 V 1.0 to 250.0




VTS Blocking Enable



Name

Symbol/Value

Unit

Range

59NDT-2 Disabled


Pickup VN 10.0 V 1.0 to 250.0




VTS Blocking Enable

59NIT - Derived Residual Inverse Time Over Voltage

59NIT Disabled


Pickup VN 7.0 V 1.0 to 250.0



TMS 1.00 - 0.01 to 10.00



A 1.0 - 0.1 to 50.0

B 0.0 - 0.0 to 10.0

p 1.0 - 0.1 to 10.0

VTS Blocking Enable

59GDT - Measured Residual Definite Time Over Voltage

59GDT-1 Disabled



Pickup VG 10.0 V 1.0 to 250.0







59GDT-2 Disabled



Pickup VG 10.0 V 1.0 to 250.0




59GIT - Measured Residual Inverse Time Over Voltage

59GIT Disabled



Pickup VG 66.7 V 1.0 to 250.0



TMS 1.00 - 0.01 to 10.00



A 1.0 - 0.1 to 50.0

B 0.0 - 0.0 to 10.0

p 1.0 - 0.1 to 10.0

81U/O - Under/Over Frequency

81U/O-1 Disabled


Pickup F 49.0 Hz 40.0 to 60.0


Pickup Delay 2.00 s 0.00 to 999.99

VTS Blocking Enable

81U/O-2 Disabled

Function Selection UV Pickup F 49.0 Hz 40.0 to 60.0






VTS Blocking Enable

81U/O-3 Disabled


Pickup F 49.0 Hz 40.0 to 60.0



VTS Blocking Enable

81U/O-4 Disabled


Pickup F 49.0 Hz 40.0 to 60.0



VTS Blocking Enable

81U/O-5 Disabled


Pickup F 49.0 Hz 40.0 to 60.0



VTS Blocking Enable

81U/O-6 Disabled


Pickup F 49.0 Hz 40.0 to 60.0



VTS Blocking Enable




81U/O-7 Disabled


Pickup F 49.0 Hz 40.0 to 60.0



VTS Blocking Enable

81U/O-8 Disabled


Pickup F 49.0 Hz 40.0 to 60.0



VTS Blocking Enable

81R - Rate of Change of Frequency

81R-1 Disabled

Pickup df/dt -0.5 Hz -10.0 to 10.0



VTS Blocking Enable

81R-2 Disabled




VTS Blocking Enable

81R-3 Disabled




VTS Blocking Enable




81R-4 Disabled




VTS Blocking Enable

25/27/59 - Check Synchronization

25/27/59 Disabled

Maximum Voltage 70 V 60 to 138

Minimum Voltage 40 V 40 to 69.9

Angle Difference 20 Deg 1.0 to 50.0

Phase Angle Difference 5 Deg 1.0 to 50.0

PickUp Delay 0.10 s 0.00 to 10.00

Frequency Difference Disabled

Frequency Difference 0.010 Hz 0.010 to 2.000

DMLS Disabled

LMDS Disabled

DMDS Disabled

67SEF-Directional Function for SEF

Characteristic Angle -15 Deg -95 to 95

Minimum Voltage 10.0 V 0.3 to 40.0

Measurement Input VN VTS Blocking Enabled




64/50SEF - Instantaneous SEF/REF

64/50SEF-1 Disabled

Direction Selection Non-Dir


Pickup ISEF 0.200 A 0.005 to 3.000

Pick Delay 0.00 s 0.00 to 999.99

Current Compensation 0.000 A 0.000 to 0.500

64/50SEF-2 Disabled



Pickup ISEF 0.200 A 0.005 to 3.000

Pick Delay 0.00 s 0.00 to 999.99

Current Compensation 0.000 A 0.000 to 0.500 64/51SEF - Inverse Time Sensitive / Restricte d Earth Fault

64/51SEF-1 Enabled



Pickup ISEF 0.200 A 0.005 to 3.000

Curve Type IEC standard inverse-3

TMS 1.00 - 0.01 to 10.00


Reset Delay DTL


Reset delay(TR) 13.50 - 0.10 to 150.00

A 0.1400 - 0.0010 to 1000.0000

B 0.0000 - 0.0000 to 10.0000

p 0.02 - 0.01 to 100.00





64/51SEF-2 Enabled



Pickup ISEF 0.200 A 0.005 to 3.000

Curve Type IEC standard inverse-3

TMS 1.00 - 0.01 to 10.00


Reset Delay DTL


Reset delay(TR) 13.50 - 0.10 to 150.00

A 0.1400 - 0.0010 to 1000.0000

B 0.0000 - 0.0000 to 10.0000

p 0.02 - 0.01 to 100.00


60VTS - VT Supervision

60VTS Enabled

Pickup VN 33.0 V 1.0 to 40.0

Pickup V3ph 10.0 V 1.0 to 40.0


CB status check Disabled

THD - Total Harmonic Distortion

THD-1 Enabled

Pickup THD-V 3 % 1 to 100


VTS Blocking Enable

THD-2 Enabled Pickup THD-V 3 % 1 to 100


VTS Blocking Enable




74TCS - Trip Circuit Supervision

74TCS-1[TCS 1] Disabled

Dropoff Delay 0.40 s 0.00 to 9.99

74TCS-2[TCS 2] Disabled

Dropoff Delay 0.40 s 0.00 to 9.99

U/V - Under Voltage Count Alarm

U/V Enabled

Pickup V 40.0 V 1.0 to 220.0

U/V Count 100 - 1 to 1000

Count Accumulation Period 1 days 1 to 31

O/V - Over Voltage Count Alarm

O/V Enabled

Pickup V 70.0 V 1.0 to 220.0

O/V Count 100 - 1 to 1000


U/F - Under Frequency Count Alarm

U/F Enabled

Pickup F 49.90 Hz 40.00 to 50.00

U/F Count 100 - 1 to 1000


O/F - Over Frequency Count Alarm

O/F Enabled

Pickup F 50.10 Hz 50.00 to 60.00

O/F Count 100 - 1 to 1000


S/I - Status Input Count Alarm

S/I Enabled




Count Input SI4


S/I Count 100 - 1 to 1000


PL 1 [ProLogic 1]

ProLogic 1 Disabled

Pickup Delay-Tp 0.00 s 0.00 to 999.00

Dropout Delay-Td 0.00 s 0.00 to 999.00

Operator 1

Input A <Unused = 0>

Operator 2

Input B <Unused = 0>

Operator 3

Input C <Unused = 0>

Operator 4

Input D <Unused = 0>

Operator 5

Input E <Unused = 0>

PL 2 [ProLogic 2]

ProLogic 2 Disabled



Operator 1


Operator 2 Input B <Unused = 0>

Operator 3





Operator 4


Operator 5


PL 3 [ProLogic 3]

ProLogic 3 Disabled



Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 4 [ProLogic 4]

ProLogic 4 Disabled



Operator 1


Operator 2


Operator 3


Operator 4





Operator 5


PL 5 [ProLogic 5]

ProLogic 5 Disabled



Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 6 [ProLogic 6]

ProLogic 6 Disabled



Operator 1


Operator 2


Operator 3


Operator 4


Operator 5





PL 7 [ProLogic 7]

ProLogic 7 Disabled



Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 8 [ProLogic 8]

ProLogic 8 Disabled



Operator 1


Operator 2


Operator 3


Operator 4


Operator 5





PL 9 [ProLogic 9]

ProLogic 9 Disabled



Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 10 [ProLogic 10]

ProLogic 10 Disabled



Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 11 [ProLogic 11]







Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 12 [ProLogic 12]




Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 13 [ProLogic 13]







Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 14 [ProLogic 14]




Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 15 [ProLogic 15]




Operator 1





Operator 2


Operator 3


Operator 4


Operator 5


PL 16 [ProLogic 16]




Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 17 [ProLogic 17]




Operator 1


Operator 2




Name

Symbol/Value

Unit

Range

Operator 3


Operator 4


Operator 5


PL 18 [ProLogic 18]




Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


PL 19 [ProLogic 19]




Operator 1


Operator 2


Operator 3





Operator 4


Operator 5


PL 20 [ProLogic 20]




Operator 1


Operator 2


Operator 3


Operator 4


Operator 5


Relay Reset

Reset Type[RL 1] Self Reset

Minimum Energize Delay 0.10 s -

















Target LED Reset

Reset Type[Target LED 2] Self Reset







Appendix C-1 F-PRO User Manual F295-03-17R1.10

17 Appendix C CT Requirements

The relay is a complete Multifunction Protection re lay package designed and manufactured with high quality features . For operation of the relay in the right manner inputs has to be given in the proper manner. This appendix will describe about the requirements of the CT to be chosen for relay.

Selection of CT Primary Tap:

The nominal primary current In should be chosen in such a way that the thermal and dynamic strength of the current measuring input of the relay is not exceeded. This is always fulfilled when In> Ikmax/ 100 where Ikmax is the highest fault current.

Selection of CT Knee

Point voltage: The knee point voltage requirement of the current transformer is given below

Phase overcurrent requirement:

VK ≥ Ifx (RCT + RL+ Rrp)

Neutral Overcurrent requirement:

VK ≥ Inx (RCT+ 2RL+ Rrp+ Rrn)

VK = Required CT knee-point voltage (volts) Ifx = Maximum prospective secondary Phase fault current (amps) Inx = Maximum prospective secondary Phase fault current (amps) RCT = Resistance of current transformer secondary winding (ohms) RL = Resistance of a single lead from relay to current transformer (ohms) Rrp = Impedance of relay phase current input at 30 In (ohms) Rrn = Impedance of the relay neutral current input at 30 In (ohms)

F295-03-17R1.10 F-PRO User Manual Appendix D-1

18 Appendix D Event Messages

Event Log Message 27DT-1 Phase Picked up 27DT-2 Phase Picked up 27DT-3 Phase Picked up 27DT-4 Phase Picked up 27DT-5 Phase Picked up 27DT-6 Phase Picked up 27DT-1 Phase Operated 27DT-2 Phase Operated 27DT-3 Phase Operated 27DT-4 Phase Operated 27DT-5 Phase Operated 27DT-6 Phase Operated 27IT-1 Phase Picked up 27IT-2 Phase Picked up 27IT-1 Phase Operated 27IT-2 Phase Operated 59DT-1 Phase Picked up 59DT-2 Phase Picked up 59DT-3 Phase Picked up 59DT-4 Phase Picked up 59DT-5 Phase Picked up 59DT-6 Phase Picked up 59DT-1 Phase Operated 59DT-2 Phase Operated 59DT-3 Phase Operated 59DT-4 Phase Operated 59DT-5 Phase Operated 59DT-6 Phase Operated 59IT-1 Phase Picked up 59IT-2 Phase Picked up 59IT-1 Phase Operated 59IT-2 Phase Operated 24DT-1 Phase Picked up 24DT-2 Phase Picked up 24DT-1 Phase Operated 24DT-2 Phase Operated 24IT Phase Picked up 24IT Phase Operated 47DT-1 Picked up 47DT-2 Picked up 47DT-1 Operated 47DT-2 Operated 47IT Picked up 47IT Operated 59NDT-1 Picked up

Appendix D-2 F-PRO User Manual F295-03-17R1.10

59NDT-2 Picked up 59NDT-1 Operated 59NDT-2 Operated 59NIT Picked up 59NIT Operated 59GDT-1 Picked up 59GDT-2 Picked up 59GDT-1 Operated 59GDT-2 Operated 59GIT Picked up 59GIT Operated 81U-1 Picked up 81U-2 Picked up 81U-3 Picked up 81U-4 Picked up 81U-5 Picked up 81U-6 Picked up 81U-7 Picked up 81U-8 Picked up 81U-1 Operated 81U-2 Operated 81U-3 Operated 81U-4 Operated 81U-5 Operated 81U-6 Operated 81U-7 Operated 81U-8 Operated 81O-1 Picked up 81O-2 Picked up 81O-3 Picked up 81O-4 Picked up 81O-5 Picked up 81O-6 Picked up 81O-7 Picked up 81O-8 Picked up 81O-1 Operated 81O-2 Operated 81O-3 Operated 81O-4 Operated 81O-5 Operated 81O-6 Operated 81O-7 Operated 81O-8 Operated 81R-1 Picked up 81R-2 Picked up 81R-3 Picked up 81R-4 Picked up 81R-1 Operated 81R-2 Operated 81R-3 Operated

18. Appendix D Event Messages

F295-03-17R1.10 F-PRO User Manual Appendix D-3

81R-4 Operated 25/27/59 Operated 64/50SEF-1 Picked up 64/50SEF-2 Picked up 64/50SEF-1 Operated 64/50SEF-2 Operated 64/51SEF-1 Picked up 64/51SEF-2 Picked up 64/51SEF-1 Operated 64/51SEF-2 Operated 60VTS Operated THD Operated 74TCS-1 Operated 74TCS-2 Operated U/V Count Operated O/V Count Operated U/F Count Operated O/F Count Operated S/I Count Operated Status I/P 1 Status I/P 2 Status I/P 3 Status I/P 4 Relay O/P 1 Relay O/P 2 Relay O/P 3 Relay O/P 4 Relay O/P 5 Relay O/P 6 Relay O/P 7 Relay O/P 8 User Changed Active Group from X to Y (Local) User Changed Active Group from X to Y (Remote) New Settings Loaded, Active Group n ProLogic1 ProLogic2 ProLogic3 ProLogic4 ProLogic5 ProLogic6 ProLogic7 ProLogic8 ProLogic9 ProLogic10 ProLogic11 ProLogic12 ProLogic13 ProLogic14 ProLogic15

18. Appendix D Event Messages

Appendix D-4 F-PRO User Manual F295-03-17R1.10

ProLogic16 ProLogic17 ProLogic18 ProLogic19 ProLogic20 Virtual Inputs 1 Virtual Inputs 2 Virtual Inputs 3 Virtual Inputs 4 Virtual Inputs 5 Virtual Inputs 6 Virtual Inputs 7 Virtual Inputs 8 Virtual Inputs 9 Virtual Inputs 10 Virtual Inputs 11 Virtual Inputs 12 Virtual Inputs 13 Virtual Inputs 14 Virtual Inputs 15 Virtual Inputs 16 Virtual Inputs 17 Virtual Inputs 18 Virtual Inputs 19 Virtual Inputs 20 Virtual Inputs 21 Virtual Inputs 22 Virtual Inputs 23 Virtual Inputs 24 Virtual Inputs 25 Virtual Inputs 26 Virtual Inputs 27 Virtual Inputs 28 Virtual Inputs 29 Virtual Inputs 30

F295-03-17R1.10 F-PRO User Manual Appendix E-1

19 Appendix E Modbus RTU Communication Protocol

The SCADA port supports IEC 103 and Modicon Modbus protocols. All metering values available through t he terminal user interface are also available via the Modbus protocol. Additionally, the Modbus protocol support the reading of the unit time and time of the readings and provides access to trip and alarm events, include fault location information.

A “Hold Readings” function is available to freeze a ll metering readings into a snapshot (see Force Single Coil function, address 0).

Read Coil Status (Function Code 01) Channel Address Units Scale

Hold Readings 1 0: Readings not held 1: Readings held Reserved 257 Reserved Reserved 27DT-1 Picked up 513 0: OFF 1: ON 27DT-2 Picked up 514 0: OFF 1: ON 27DT-3 Picked up 515 0: OFF 1: ON 27DT-4 Picked up 516 0: OFF 1: ON 27DT-5 Picked up 517 0: OFF 1: ON 27DT-6 Picked up 518 0: OFF 1: ON 27DT-1 Operated 519 0: OFF 1: ON 27DT-2 Operated 520 0: OFF 1: ON 27DT-3 Operated 521 0: OFF 1: ON 27DT-4 Operated 522 0: OFF 1: ON 27DT-5 Operated 523 0: OFF 1: ON 27DT-6 Operated 524 0: OFF 1: ON 27IT-1 Picked up 525 0: OFF 1: ON 27IT-2 Picked up 526 0: OFF 1: ON 27IT-1 Operated 527 0: OFF 1: ON 27IT-2 Operated 528 0: OFF 1: ON 59DT-1 Picked up 529 0: OFF 1: ON 59DT-2 Picked up 530 0: OFF 1: ON 59DT-3 Picked up 531 0: OFF 1: ON 59DT-4 Picked up 532 0: OFF 1: ON 59DT-5 Picked up 533 0: OFF 1: ON 59DT-6 Picked up 534 0: OFF 1: ON 59DT-1 Operated 535 0: OFF 1: ON 59DT-2 Operated 536 0: OFF 1: ON 59DT-3 Operated 537 0: OFF 1: ON 59DT-4 Operated 538 0: OFF 1: ON 59DT-5 Operated 539 0: OFF 1: ON 59DT-6 Operated 540 0: OFF 1: ON 59IT-1 Picked up 541 0: OFF 1: ON 59IT-2 Picked up 542 0: OFF 1: ON 59IT-1 Operated 543 0: OFF 1: ON 59IT-2 Operated 544 0: OFF 1: ON 24DT-1 Picked up 545 0: OFF 1: ON

19. Appendix E Modbus RTU Communication Protocol

Appendix E-2 F-PRO User Manual F295-03-17R1.10

24DT-2 Picked up 546 0: OFF 1: ON 24DT-1 Operated 547 0: OFF 1: ON 24DT-2 Operated 548 0: OFF 1: ON 24IT-1 Picked up 549 0: OFF 1: ON 24IT-1 Operated 550 0: OFF 1: ON 47DT-1 Picked up 551 0: OFF 1: ON 47DT-2 Picked up 552 0: OFF 1: ON 47DT-1 Operated 553 0: OFF 1: ON 47DT-2 Operated 554 0: OFF 1: ON 47IT-1 Picked up 555 0: OFF 1: ON 47IT-1 Operated 556 0: OFF 1: ON 59NDT-1 Picked up 557 0: OFF 1: ON 59NDT-2 Picked up 558 0: OFF 1: ON 59NDT-1 Operated 559 0: OFF 1: ON 59NDT-2 Operated 560 0: OFF 1: ON 59NIT-1 Picked up 561 0: OFF 1: ON 59NIT-1 Operated 562 0: OFF 1: ON 59GDT-1 Picked up 563 0: OFF 1: ON Read Coil Status (Function Code 01)

Channel Address Units Scale 59GDT-2 Picked up 564 0: OFF 1: ON 59GDT-1 Operated 565 0: OFF 1: ON 59GDT-2 Operated 566 0: OFF 1: ON 59GIT-1 Picked up 567 0: OFF 1: ON 59GIT-1 Operated 568 0: OFF 1: ON 81U-1 Picked up 569 0: OFF 1: ON 81U-2 Picked up 570 0: OFF 1: ON 81U-3 Picked up 571 0: OFF 1: ON 81U-4 Picked up 572 0: OFF 1: ON 81U-5 Picked up 573 0: OFF 1: ON 81U-6 Picked up 574 0: OFF 1: ON 81U-7 Picked up 575 0: OFF 1: ON 81U-8 Picked up 576 0: OFF 1: ON 81U-1 Operated 577 0: OFF 1: ON 81U-2 Operated 578 0: OFF 1: ON 81U-3 Operated 579 0: OFF 1: ON 81U-4 Operated 580 0: OFF 1: ON 81U-5 Operated 581 0: OFF 1: ON 81U-6 Operated 582 0: OFF 1: ON 81U-7 Operated 583 0: OFF 1: ON 81U-8 Operated 584 0: OFF 1: ON 81O-1 Picked up 585 0: OFF 1: ON 81O-2 Picked up 586 0: OFF 1: ON 81O-3 Picked up 587 0: OFF 1: ON 81O-4 Picked up 588 0: OFF 1: ON 81O-5 Picked up 589 0: OFF 1: ON 81O-6 Picked up 590 0: OFF 1: ON 81O-7 Picked up 591 0: OFF 1: ON 81O-8 Picked up 592 0: OFF 1: ON 81O-1 Operated 593 0: OFF 1: ON 81O-2 Operated 594 0: OFF 1: ON



81O-3 Operated 595 0: OFF 1: ON 81O-4 Operated 596 0: OFF 1: ON 81O-5 Operated 597 0: OFF 1: ON 81O-6 Operated 598 0: OFF 1: ON 81O-7 Operated 599 0: OFF 1: ON 81O-8 Operated 600 0: OFF 1: ON 81R-1 Picked up 601 0: OFF 1: ON 81R-2 Picked up 602 0: OFF 1: ON 81R-3 Picked up 603 0: OFF 1: ON 81R-4 Picked up 604 0: OFF 1: ON 81R-1 Operated 605 0: OFF 1: ON 81R-2 Operated 606 0: OFF 1: ON 81R-3 Operated 607 0: OFF 1: ON 81R-4 Operated 608 0: OFF 1: ON 25/27/59 Operated 609 0: OFF 1: ON 64/50SEF-1 Picked up 610 0: OFF 1: ON 64/50SEF-2 Picked up 611 0: OFF 1: ON 64/50SEF-1 Operated 612 0: OFF 1: ON 64/50SEF-2 Operated 613 0: OFF 1: ON 64/51SEF-1 Picked up 614 0: OFF 1: ON 64/51SEF-2 Picked up 615 0: OFF 1: ON 64/51SEF-1 Operated 616 0: OFF 1: ON 64/51SEF-2 Operated 617 0: OFF 1: ON 60VTS Operated 618 0: OFF 1: ON THD-1 Operated 619 0: OFF 1: ON THD-2 Operated 620 0: OFF 1: ON Read Coil Status (Function Code 01)

Channel Address Units Scale 74TCS-1 Operated 621 0: OFF 1: ON 74TCS-2 Operated 622 0: OFF 1: ON U/V Count Operated 623 0: OFF 1: ON O/V Count Operated 624 0: OFF 1: ON U/F Count Operated 625 0: OFF 1: ON O/F Count Operated 626 0: OFF 1: ON S/I Count Operated 627 0: OFF 1: ON ProLogic1 628 0: OFF 1: ON ProLogic2 629 0: OFF 1: ON ProLogic3 630 0: OFF 1: ON ProLogic4 631 0: OFF 1: ON ProLogic5 632 0: OFF 1: ON ProLogic6 633 0: OFF 1: ON ProLogic7 634 0: OFF 1: ON ProLogic8 635 0: OFF 1: ON ProLogic9 636 0: OFF 1: ON ProLogic10 637 0: OFF 1: ON ProLogic11 638 0: OFF 1: ON ProLogic12 639 0: OFF 1: ON ProLogic13 640 0: OFF 1: ON ProLogic14 641 0: OFF 1: ON ProLogic15 642 0: OFF 1: ON ProLogic16 643 0: OFF 1: ON ProLogic17 644 0: OFF 1: ON ProLogic18 645 0: OFF 1: ON



ProLogic19 646 0: OFF 1: ON ProLogic20 647 0: OFF 1: ON Relay O/P1 648 0: OFF 1: ON Relay O/P2 649 0: OFF 1: ON Relay O/P3 650 0: OFF 1: ON Relay O/P4 651 0: OFF 1: ON Relay O/P5 652 0: OFF 1: ON Relay O/P6 653 0: OFF 1: ON Relay O/P7 654 0: OFF 1: ON Relay O/P8 655 0: OFF 1: ON

In the below table , Scale value should be divided with the metering data obtained from Modbus.

Read Holding Registers (Function Code 03)

Channel Address Units Scale VA Magnitude 40257 KV 100 VA Angle 40258 Degrees 1 VB Magnitude 40259 KV 100 VB Angle 40260 Degrees 1 VC Magnitude 40261 KV 100 VC Angle 40262 Degrees 1 VAB Magnitude 40263 KV 100 VAB Angle 40264 Degrees 1 VBC Magnitude 40265 KV 100 VBC Angle 40266 Degrees 1 VCA Magnitude 40267 KV 100 VCA Angle 40268 Degrees 1 VN Magnitude 40269 KV 100 VN Angle 40270 Degrees 1 Read Holding Registers (Function Code 03)

Channel Address Units Scale VG Magnitude 40271 KV 100 VG Angle 40272 Degrees 1 Vsync Magnitude 40273 KV 100 Vsync Angle 40274 Degrees 1 ISEF Magnitude 40275 A 100 ISEF Angle 40276 Degrees 1 Vpos Magnitude 40277 KV 100 Vneg Magnitude 40278 KV 100 Vzer Magnitude 40279 KV 100 %V/F 40280 % 100 %THD 40281 % 100 Bus Voltage 40282 KV 100 Line Voltage 40283 KV 100 Bus Phase Angle 40284 Degrees 1 Line Phase Angle 40285 Degrees 1 Bus Frequency 40286 Hz 10 Line Frequency 40287 Hz 10



Read Input Register (Function Code 04)

No input registers supported. Response front IED indicates “ILLEGAL FUNCTION.”

Force Single Coil (Function Code 05)

Only the “hold readings” coil can be forced. When active, this coil locks all coil, input and holding register readings simultaneously at their present values. When inactive, coil, input and holding register values will read their most recently available state.

Channel Type Address

Value

Hold Readings Read/Write 01

0000: Readings update normally (inactive) FF00: Hold readings (active)

Write Multiple Registers (Function Code 16) Channel Address Units Scale

F-PRO Clock Time (UTC) – Note: Must write to all the registers in same query

Milliseconds now 40001 0 – 999 1

Seconds now 40002 0 – 59 1

Minutes now 40003 0 – 59 1

Hours now 40004 0 – 23 1

Day of year now 40005 1 – 365 1

Year since 1900 40006 90 – 137 1

Write Single Register (Function Code 06)

Channel Address Value

Scaled Up By

Event Message Control (See ‘Sample event record’ table given below for details of use)

Refresh event list 40513 No data required

N/A

Acknowledge the current event and get the next event

40514 No data required

N/A

Get the next event (without acknowledge)

40515 No data required

N/A

Diagnostic Subfunctions (Function Code 08)

Return Query Data (Subfunction 00) This provides an echo of the submitted message.

Restart Communication Option (Subfunction 01) This restarts the Modbus communications process.

Force Listen Only Mode (Subfunction 04) No response is returned. IED enters “Listen Only” mode. This mode can only be excited by the “Restart Communication Option” command.



The F-PRO IED model number is 295.

• Version and issue will each be positive integers, say X and Y.

• The F-PRO is defined as “Model, Version X Issue B”

Accessing F-PRO Event Information

All F-PRO detector event messages displayed in the Event Log are available via Modbus.The following controls are available.

Refresh Event List (Function Code 6, address 40513): Fetches the latest events from the F-PRO's event log and makes them available for Modbus access. The most recent event becomes the current event available for reading.

Acknowledge Current Event and Get Next Event

(Function Code 6, address 40514): Clears the current event from the read registers and places the next event into them. An acknowledged event is no longer available for reading.

Get Next Event (Function Code 6, address 40515): Places the next event in the read registers without acknowledging the current event. The current event will reappear in the list when Refresh Event List is used.

Size of Current Event Message

(Function Code 3, address 40516): Indicates the number of 16 bit registers used to contain the current event. Event data is stored with two characters per register. A reading of zero indicates that there are no unacknowledged events available in the current set. (Note: The Refresh Event List function can be used to check for new events that have occurred since the last Refresh Event List.)

Read Event Message (Function Code 3, addresses 40517 - 40576): Contains the current event message. Two ASCII characters are packed into each 16 bit register. All unused registers in the set are set to 0.

Report Slave ID (Function Code 17)

A fixed response is returned by the IED, including system model, version and issue numbers.

Channel Type Bytes

Value

Model Number Read Only 0 and 1

0 x 00D7= 215 decimal

Version Number Read Only 2 and 3

Version number

Issue Number Read Only 4 and 5

Issue number



Sample Event Record

Register

Value

Meaning

High Byte Low Byte 40516 0x00 0x14 Event text size = 20 (0x14 hex)

40517 0x32 0x30 ‘2’, ‘0’

40518 0x31 0x33 ‘1’, ‘3’

40519 0x53 0x65 ‘S’, ‘e’

40520 0x70 0x31 ‘p’, ‘1’

40521 0x32 0x20 ‘2’, ‘ ‘

40522 0x30 0x38 ‘0’, ‘8’

40523 0x3A 0x31 ‘:’, ‘1’

40524 0x36 0x3A ‘6’, ‘:’

40525 0x31 0x36 ‘1’, ‘6’

40526 0x2E 0x39 ‘.’, ‘9’

40527 0x36 0x36 ‘6’, ‘6’

40528 0x20 0x3A ‘ ‘, ‘:’

40529 0x20 0x35 ‘ ‘, ‘5’

40530 0x30 0x2D ‘0’, ‘-‘

40531 0x31 0x65 ‘1’, ‘A‘

40532 0x66 0x20 ‘B’, ‘ ‘

40533 0x4F 0x70 ‘O’, ‘p’

40534 0x65 0x72 ‘e’, ‘r’

40535 0x61 0x74 ‘a ‘, ‘t’

40536 0x65 0x64 ‘e’, ‘d ‘

Appendix F-1 F-PRO User Manual F295-03-17R1.10

20 Appendix F IEC 103 Device Profile

Device Properties

This document shows the dev ice capabilities and the current value of each parameter for the default unit configuration as defined in t he default configuration file

. IEC60870 Function Type & COT Descriptions

Function Type Description 160 IEC Overcurrent Protection 164 ERL Overcurrent Protection 165 ERL Voltage Protection 166 ERL Frequency Protection 167 ERL Synchronizing Function 168 ERL High Impedance Differential Protection 169 ERL Motor Protection 170 ERL Capacitor Protection 176 IEC Transformer Protection 178 ERL Transformer Protection 254 IEC Generic 255 IEC Global

Cause of Transmission

(COT)

Description

1 Spontaneous Events 2 Cyclic 3 Reset Frame Count Bit (FCB) 4 Reset Communication Unit (CU) 5 Start Restart 8 Time Synchronization 9 General Interrogation

10 Termination of General Interrogation 11 Local Operation 12 Remote Operation 20 Positive Command Acknowledge 21 Negative Command Acknowledge

This section contains the event & command codes defined

KEY:-

FUN Function Type INF Information Number GI Event supports General Interrogation x = supported TYP ASDU Type COT Cause of Transmission

F295-03-17R1.10 F-PRO User Manual Appendix F-2

20. Appendix F IEC 103 Device Profile

DIR Direction of event Raised Only (RO), Raised / Cleared (RC) or

Double Point Travelling, Cleared, Raised or Unknown (DP) x Supported - Not supported

FUN INF Description GI TYP COT DIR

F-P

RO

295

165 2 Reset FCB - 5 3 RO x 165 3 Reset CU - 5 4 RO x 165 4 Start/Restart - 5 5 RO x 165 5 Power ON - 5 6 RO x

165 19 LEDs reset - 1 1, 11, 12, 20, 21 RO x

165 22 Settings changed x 1 1, 9, 11, 12 RC x 165 23 Setting G1 selected x 1 1, 9, 11, 12, 20, 21 RC x 165 24 Setting G2 selected x 1 1, 9, 11, 12, 20, 21 RC x 165 25 Setting G3 selected x 1 1, 9, 11, 12, 20, 21 RC x 165 26 Setting G4 selected x 1 1, 9, 11, 12, 20, 21 RC x

165 27 Status Input1 x 1 1, 9 RC x 165 28 Status Input2 x 1 1, 9 RC x 165 29 Status Input3 x 1 1, 9 RC x 165 30 Status Input4 x 1 1, 9 RC x

165 36 Trip Circuit Supervision (TCS-1) x 1 1,9 RC x

165 64 A-starter x 2 1, 9 RC x 165 65 B-starter x 2 1, 9 RC x 165 66 C-starter x 2 1, 9 RC x 165 67 E-starter x 2 1, 9 RC x 165 68 General trip - 2 1 RO x



165 69 A-general trip - 2 1 RO x 165 70 B-general trip - 2 1 RO x 165 71 C-general trip - 2 1 RO x

165 84 General starter x 2 1,9 RC x

165 148 Measurand VL1,2,3, F x 9 2 - x

164 160 64/50SEF-1 Picked up - 2 1 RC x

164 161 64/50SEF-2 Picked up - 2 1 RC x 164 162 64/50SEF-1 Operated - 2 1 RO x 164 163 64/50SEF-2 Operated - 2 1 RO x 164 164 64/51SEF-1 Picked up - 2 1 RC x 164 165 64/51SEF-2 Picked up - 2 1 RC x 164 166 64/51SEF-1 Operated - 2 1 RO x 164 167 64/51SEF-2 Operated - 2 1 RO x 164 168 60VTS Operated - 1 1 RO x 164 169 Trip Circuit Supervision (TCS-2) x 1 1,9 RC x

164 170 Output1 x 1 1, 9, 12, 20, 21 RC x 164 171 Output2 x 1 1, 9, 12, 20, 21 RC x 164 172 Output3 x 1 1, 9, 12, 20, 21 RC x 164 173 Output4 x 1 1, 9, 12, 20, 21 RC x 164 174 Output5 x 1 1, 9, 12, 20, 21 RC x 164 175 Output6 x 1 1, 9, 12, 20, 21 RC x 164 176 Output7 x 1 1, 9, 12, 20, 21 RC x 164 177 Output8 x 1 1, 9, 12, 20, 21 RC x

164 178 Disturbance record stored - 1 1, 12, 20, 21 RO x

165 160 27DT-1 Picked up - 2 1 RC x 165 161 27DT-2 Picked up - 2 1 RC x 165 162 27DT-3 Picked up - 2 1 RC x 165 163 27DT-4 Picked up - 2 1 RC x 165 164 27DT-5 Picked up - 2 1 RC x 165 165 27DT-6 Picked up - 2 1 RC x 165 166 27DT-1 Operated - 2 1 RO x 165 167 27DT-2 Operated - 2 1 RO x 165 168 27DT-3 Operated - 2 1 RO X 165 169 27DT-4 Operated - 2 1 RO X 165 170 27DT-5 Operated - 2 1 RO x 165 171 27DT-6 Operated - 2 1 RO x 165 172 27IT-1 Picked up - 2 1 RC x 165 173 27IT-2 Picked up - 2 1 RC x 165 174 27IT-1 Operated - 2 1 RO x 165 175 27IT-2 Operated - 2 1 RO x 165 176 59DT-1 Picked up - 2 1 RC x 165 177 59DT-2 Picked up - 2 1 RC x 165 178 59DT-3 Picked up - 2 1 RC x 165 179 59DT-4 Picked up - 2 1 RC x 165 180 59DT-5 Picked up - 2 1 RC x


F295-03-17R1.10 F-PRO User Manual Appendix F-4

165 181 59DT-6 Picked up - 2 1 RC x 165 182 59DT-1 Operated - 2 1 RO x 165 183 59DT-2 Operated - 2 1 RO x

165 184 59DT-3 Operated - 2 1 RO x 165 185 59DT-4 Operated - 2 1 RO x

165 186 59DT-5 Operated - 2 1 RO x 165 187 59DT-6 Operated - 2 1 RO x 165 188 59IT-1 Picked up - 2 1 RC x 165 189 59IT-2 Picked up - 2 1 RC x

165 190 59IT-1 Operated - 2 1 RO x 165 191 59IT-2 Operated - 2 1 RO x 165 192 24DT-1 Picked up - 2 1 RC x 165 193 24DT-2 Picked up - 2 1 RC x 165 194 24DT-1 Operated - 2 1 RO x 165 195 24DT-2 Operated - 2 1 RO x 165 196 24IT Picked up - 2 1 RC x 165 197 24IT Operated - 2 1 RO x 165 198 47DT-1 Picked up - 2 1 RC x 165 199 47DT-2 Picked up - 2 1 RC x 165 200 47DT-1 Operated - 2 1 RO x 165 201 47DT-2 Operated - 2 1 RO x 165 202 47IT Picked up - 2 1 RC x 165 203 47IT Operated - 2 1 RO x 165 204 59NDT-1 Picked up - 2 1 RC x 165 205 59NDT-2 Picked up - 2 1 RC x 165 206 59NDT-1 Operated - 2 1 RO x 165 207 59NDT-2 Operated - 2 1 RO x 165 208 59NIT Picked up - 2 1 RC x 165 209 59NIT Operated - 2 1 RO x 165 210 59GDT-1 Picked up - 2 1 RC x 165 211 59GDT-2 Picked up - 2 1 RC x 165 212 59GDT-1 Operated - 2 1 RO x 165 213 59GDT-2 Operated - 2 1 RO x 165 214 59GIT Picked up - 2 1 RC x 165 215 59GIT Operated - 2 1 RO x 165 216 THD-1 Operated - 1 1 RO x 165 217 THD-2 Operated - 1 1 RO x 165 218 U/V Count Operated - 1 1 RO x 165 219 O/V Count Operated - 1 1 RO X

165 220 VA Fault Voltage x 4 1,9 - x 165 221 VB Fault Voltage x 4 1,9 - x 165 222 VC Fault Voltage x 4 1,9 - x 165 223 VN Fault Voltage x 4 1,9 - x 165 224 Vg Fault Voltage x 4 1,9 - x 165 225 ISEF Fault current x 4 1,9 - x 165 226 V2 Fault Voltage x 4 1,9 - x 165 227 %VF Fault Voltage x 4 1,9 - x 165 228 Frequency x 4 1,9 - x 165 229 dF/dT x 4 1,9 - x

166 160 81U-1 Picked up - 2 1 RC x



166 161 81U-2 Picked up - 2 1 RC x

166 162 81U-3 Picked up - 2 1 RC x 166 163 81U-4 Picked up - 2 1 RC x 166 164 81U-5 Picked up - 2 1 RC x 166 165 81U-6 Picked up - 2 1 RC x 166 166 81U-7 Picked up - 2 1 RC x 166 167 81U-8 Picked up - 2 1 RC x 166 168 81U-1 Operated - 2 1 RO x 166 169 81U-2 Operated - 2 1 RO x 166 170 81U-3 Operated - 2 1 RO x 166 171 81U-4 Operated - 2 1 RO x 166 172 81U-5 Operated - 2 1 RO x 166 173 81U-6 Operated - 2 1 RO x 166 174 81U-7 Operated - 2 1 RO x 166 175 81U-8 Operated - 2 1 RO x 166 176 81O-1 Picked up - 2 1 RC x 166 177 81O-2 Picked up - 2 1 RC x 166 178 81O-3 Picked up - 2 1 RC x 166 179 81O-4 Picked up - 2 1 RC x 166 180 81O-5 Picked up - 2 1 RC x 166 181 81O-6 Picked up - 2 1 RC x 166 182 81O-7 Picked up - 2 1 RC x 166 183 81O-8 Picked up - 2 1 RC x 166 184 81O-1 Operated - 2 1 RO x 166 185 81O-2 Operated - 2 1 RO x 166 186 81O-3 Operated - 2 1 RO x 166 187 81O-4 Operated - 2 1 RO x 166 188 81O-5 Operated - 2 1 RO x 166 189 81O-6 Operated - 2 1 RO x 166 190 81O-7 Operated - 2 1 RO x 166 191 81O-8 Operated - 2 1 RO x 166 192 81R-1 Picked up - 2 1 RC x 166 193 81R-2 Picked up - 2 1 RC x 166 194 81R-3 Picked up - 2 1 RC x 166 195 81R-4 Picked up - 2 1 RC x 166 196 81R-1 Operated - 2 1 RO x 166 197 81R-2 Operated - 2 1 RO x 166 198 81R-3 Operated - 2 1 RO x 166 199 81R-4 Operated - 2 1 RO X 166 200 U/F Count Operated - 1 1 RO X 166 201 O/F Count Operated - 1 1 RO x

167 160 25/27/59 Operated - 1 1 RO x

255 0 Time Synchronization - 6 8 - x 165 230 S/I Count Operated - 1 1 RO x

F295-03-17R1.10 F-PRO User Manual Appendix G-1

21 Appendix G Mechanical Drawings

21.1 Front View

Appendix G-2 F-PRO User Manual F295-03-17R1.10

21.2 Rear View

F295-03-17R1.10 F-PRO User Manual Appendix H-1

22 Appendix H AC Schematic Drawing

Notes:

1. CT inputs 1 to be used for 1A protection and for recording of the protected line. 2. CT inputs 2 can be used for 5A protection and for recording of the protected line.

Appendix I-1 F-PRO User Manual F295-03-17R1.10

23 Appendix I DC Schematic Drawing

F295-03-17R1.10 F-PRO User Manual Appendix J-1

24 Appendix J Function Logic Diagram

Appendix K-1 F-PRO User Manual F295-03-17R1.10

25 Appendix K F-PRO Setting Example

Protection, Timers and I/O Status

The relay does not block any protection functions or external inputs during the setting save or active group change, but the external output contacts are reset for one cycle.

The relay applies the setting parameters, resets all protection functions, resets all timers and continues to process the protection algorithms but does not apply any action to the output contacts for one cycle. For close -in (heavy) fault conditions that occur at the time of a setting change the relay performance has a maximum increase in output delay of o ne cycle. For light fault conditions the relay performance does not have a noticeable change. There is normally a one cycle decision making process. The relay algorithms have been processing and when the one cycle blocking ends and the contacts are closed immediately.

Latch Status The relay does not reset any Pr oLogic or Virtual Input latch functions during the setting

save or active group change. Retaining latch status allows the relay continuous access to specific latched logic states. This is useful when t he relay has ProLogic, Group Logic or Virtual Input functions used to block protection or ancillary functions for specific operating conditions.

Event Status Reset

The relay resets all the events that are currently high and reports states of all the events that remain high after a setting change.

Viewing Active Setting Group

To view active setting group via the RCP, go to Utilities > Setting Group. It is configurable only through S ervice/Change access level.

Front Panel Active Setting Group View the active setting group with the relay front panel display. The active setting group can be changed through the front panel of the relay.

To view the active setting group enter View>Configuration>Setting Group> Active. The same can be changed when accessed through Change or Service access level only. We can also edit and/or view the other setting groups while active setting group is different.

Appendix L-1 F-PRO User Manual F295-03-17R1.10

26 Appendix L IEC 61850 Implementation

26.1 Data Mapping Specifications F-PRO Logical Device F-PRO logical device identification

F-PRO has the following IEC 61850 logical devices defined in its ICD file:

• FPRO Fault Data

• FPRO Measurements

• FPRO Protection

• FPRO Records

• FPRO System

• FPRO Virtual Elements

F-PRO logical nodes

Table 1defines the list of logical nod es (LN) for the F-PRO logical devices.

Note:

System logical nodes (group L) are not shown here.

LD Name

LN Name

LN Description

F-PRO Protection Function

Comments

FPRO Measurements ANAMMXU1 Measurements Metering Data

Analog Channel Input Measurement (Neutral Current & 3

Phase Voltage(s))

FPRO Measurements ANAMMXU2 Measurements Metering Data Analog Channel Input

Measurement (Neutral Voltage)


Measurement (Sync Voltage)


Measurement (Compensated Neutral Voltage)


LD

LN Name

LN Description


Comments

FPRO Measurements

SEQMSQI1

Sequence & Imbalance Metering Data

Sequence Components of Voltage (V1, V2, V0) Sequence

Components of Voltage (V1, V2, V0)

FPRO Protection D50RPIOC1

Instantaneous Over Current (Directional) Dev 50/7-1 Instantaneous REF/SEF_1


Instantaneous Over Current (Directional) Dev 50/7-2 Instantaneous REF/SEF_2


Time Over Current

(Directional) Dev 51/7-1 Instantaneous REF/SEF_1


Time Over Current

(Directional) Dev 51/7-2 Instantaneous REF/SEF_2

FPRO Protection DT27PTUV1

Time Under Voltage

Dev 27_1

DTL UnderVoltage_1


Time Under Voltage

Dev 27_2 DTL UnderVoltage_2


Time Under Voltage



Time Under Voltage



Time Under Voltage



Time Under Voltage



Time Under Voltage



Time Under Voltage


FPRO Protection DT59PTOV1 Time Over Voltage

Dev 59_1 DTL OverVoltage_1













19. Appendix L IEC 61850 Implementation

F295-03-17R1.10 F-PRO User Manual Appendix L-2

LD

LN Name

LN Description

F-PRO Protection

Function

Comments



FPRO Protection DT47PTOV1 Instantaneous Over

Voltage

Dev 47_1

DTL Negative Sequence Over Voltage_1

FPRO Protection DT47PTOV2 Instantaneous Over

Voltage

Dev 47_2

DTL Negative Sequence Over Voltage_2

FPRO Protection DT47PTOV3 Time Over Voltage Dev 47_3

IDMTL Negative Sequence Over

Voltage_3

FPRO Protection DT59GPTOV1 Instantaneous Over

Voltage

Dev 59G_1

DTL Measured Ground Over Voltage_1

FPRO Protection DT59GPTOV2 Instantaneous Over

Voltage Dev 59G_2

DTL Measured Ground Over Voltage_2

FPRO Protection DT59GPTOV3 Time Over Voltage Dev 59G_3 IDMTL Measured Ground Over

Voltage_3

FPRO Protection DT59NPTOV1 Instantaneous Over

Voltage

Dev 59N_1

DTL Derived Residual Over Voltage_1

FPRO Protection DT59NPTOV2 Instantaneous Dev 59N_2 DTL Derived Residual Over Voltage_2

FPRO Protection DT59NPTOV3 Time Over Voltage Dev 59N_3 IDMTL Derived Residual Over Voltage_3



LD

LN Name

LN Description


Comments

FPRO System LLNO/..(SGCB) (predefined) Logical Node Zero Setting Group Used for Control of Setting

Group

FPRO System EIGGIO1 Generic ProcessI/O

External Inputs

Status of External Inputs (1-4)

FPRO System OCGGIO1 Generic ProcessI/O

Output Contacts

Status of Output Contacts (1-8)

FPRO System PLGGIO1 Generic ProcessI/O Prologics Status of Protection Logics

(1-20)

FPRO System LEDGGIO1 Generic ProcessI/O

HMI LED Monitoring LED status(1-8)

FPRO System HEALTHGGI

O1 Generic Process

I/O Relay Health &

IRIGB Monitoring Relay Health Status (1-2)

FPRO Virtual Elements VIGGIO1 Generic ProcessI/O

Virtual Input Status

Virtual Inputs status(1-30)

FPRO Virtual Elements VIGGIO2 General ProcessI/O

Virtual Inputs control


FPRO Virtual Elements VIGGI O3 General ProcessI/O

Virtual Output s control




Logical node specifications

The following sections provide detail ed information on the F-PRO logical nodes of the F-PRO logical Functions as defined in the previous s ection.

ANAMMXU1

This section defines logical node data for the l ogical node ANAMMXU1 of the F- PRO Measurements logi cal device.

Note: Common Logical Node information is n ot shown here. Only the data that are provided from the F-PRO application to the IEC 61850 subsystem are listed here.

Data Name

Description

ANAMMXU1$MX$PhV$phsA$cVal$mag$f VA- Magnitude

ANAMMXU1$MX$PhV$phsA$cVal$ang$f VA-Angle

ANAMMXU1$MX$PhV$phsB$cVal$mag$f VB- Magnitude

ANAMMXU1$MX$PhV$phsB$cVal$ang$f VB-Angle

ANAMMXU1$MX$PhV$phsC$cVal$mag$f VC- Magnitude

ANAMMXU1$MX$PhV$phsC$cVal$ang$f VC-Angle

ANAMMXU1$MX$PhV$neut$cVal$mag$f VN- Magnitude

ANAMMXU1$MX$PhV$neut$cVal$ang$f VN-Angle

ANAMMXU1$MX$A$neut$cVal$mag$f ISEF - Magnitude

ANAMMXU1$MX$A$neut$cVal$ang$f ISEF - Angle

ANAMMXU1$MX$Hz$mag$f F - Frequency

ANAMMXU2

This section defines logical node data for the logical node ANAMMXU2 of the F- PRO Measurements logical device.

Note:

Common Logical Node information is not shown here. Only the data that are provided from the F-PRO application to the IEC61850 subsystem are listed here.



Data Name

Description

ANAMMXU2$MX$PhV$neut$cVal$mag$f VG- Magnitude

ANAMMXU2$MX$PhV$neut$cVal$ang$f VG-Angle


ANAMMXU3


Note:


Data Name

Description

ANAMMXU3$MX$PhV$phsA$cVal$mag$f VSyn - Magnitude

ANAMMXU3$MX$PhV$phsA$cVal$ang$f VSyn-Angle


ANAMMXU4


Note:


Data Name

Description

ANAMMXU4$MX$PhV$neut$cVal$mag$f VG - Magnitude (Compensated)

ANAMMXU4$MX$PhV$neut$cVal$ang$f VG -Angle (Compensated)

ANAMMXU4$MX$A$neut$cVal$mag$f VN - Magnitude (Compensated)

ANAMMXU4$MX$A$neut$cVal$ang$f VN - Angle(Compensated)




THDMHAI1

This section defines logical node data for the logical node THDMHAI1 of the F- PRO Measurements logical device.

Note:


Data Name

Description

THDMHAI1$MX$ThdPhV$phsA$cVal$mag$f THD - Magnitude

THDMHAI1$MX$Hz$mag$f F-Fundamental Frequency

SEQMSQI1

This section defines logical node data for the logical node SEQMSQI1 of the F-PRO Measurements logical device.

Note

Common Logical Node information is not shown here. Only the data that are provided from the F-PRO application to the IEC 61850 subsystem are listed here.

Data Name

Description

MHAI1$MX$seqA$C1$cVal$mag$f Positive Sequence Current magnitude

MHAI1$MX$seqA$C2$cVal$mag$f Negative Sequence Current magnitude

MHAI1$MX$seqA$C3$cVal$mag$f Zero Sequence Current magnitude

DT27PTUV1

This section defines logical node data for the logical node DT27PTUV1 of the FPRO Protection logical device.

Note:




Data Name

Description

DT27PTUV1$ST$Str$general Starter(DT27-1Picked up)

DT27PTUV1$ST$Str$phsA Starter(DT27-1Picked up)Phase A

DT27PTUV1$ST$Str$phsB Starter(DT27-1Picked up)Phase B

DT27PTUV1$ST$Str$phsC Starter(DT27-1Picked up)Phase C

DT27PTUV1$ST$Op$general Operate(DT27-1Operated)

DT27PTUV1$ST$Op$phsA Operate(DT27-1Operated)Phase A

DT27PTUV1$ST$Op$phsB Operate(DT27-1Operated)Phase B

DT27PTUV1$ST$Op$phsC Operate(DT27-1Operated)Phase C

DT27PTUV2 This section defines logical node data for the logical node DT27PTUV2 of the FPRO

Protection logical device.

Note:


Data Name

Description






DT27PTUV2$ST$Op$phsA Operate(DT27-2Operated)PhaseA

DT27PTUV2$ST$Op$phsB Operate(DT27-2Operated)PhaseB

DT27PTUV2$ST$Op$phsC Operate(DT27-2Operated)PhaseC

DT27PTUV3


Note:




Data Name

Description









DT27PTUV4

ThissectiondefineslogicalnodedataforthelogicalnodeDT27PTUV4oftheFPRO Protectionlogicaldevice.

Note:


Data Name

Description









DT27PTUV5


Note:




Data Name

Description









DT27PTUV6


Note:


Data Name

Description









IT27PTUV1

This section defines logical node data for the logical node IT27PTUV1 of the FPRO Protection logical device.

Note:




Data Name

Description

IT27PTUV1$ST$Str$general Starter(IT27-1Picked up)

IT27PTUV1T$Str$phsA Starter(IT27-1Picked up)Phase A

IT27PTUV1$ST$Str$phsB Starter(IT27-1Picked up)Phase B

IT27PTUV1$ST$Str$phsC Starter(IT27-1Picked up)Phase C

IT27PTUV1$ST$Op$general Operate(IT27-1Operated)

IT27PTUV1$ST$Op$phsA Operate(IT27-1Operated)Phase A

IT27PTUV1$ST$Op$phsB Operate(IT27-1Operated)Phase B

IT27PTUV1$ST$Op$phsC Operate(IT27-1Operated)Phase C

IT27PTUV2

This section defines logical node data for the logical node IT27PTUV2 of the FPRO Protection logical device.

Note:


Data Name

Description

IT27PTUV1$ST$Str$general Starter(IT27-2Picked up)

IT27PTUV1$ST$Str$phsA Starter(IT27-2Picked up)Phase A

IT27PTUV1$ST$Str$phsB Starter(IT27-2Picked up)Phase B

IT27PTUV1$ST$Str$phsC Starter(IT27-2Picked up)Phase C

IT27PTUV1$ST$Op$general Operate(IT27-2Operated)

IT27PTUV1$ST$Op$phsA Operate(IT27-2Operated)Phase A

IT27PTUV1$ST$Op$phsB Operate(IT27-2Operated)Phase B

IT27PTUV1$ST$Op$phsC Operate(IT27-2Operated)Phase C

DT59PTOV1

This section defines logical node data for the logical node DT59PTOV1 of the FPRO Protection logical device.

Note: Common Logical Node information is not shown here. Only the data that are provided from the F-PRO application to the IEC61850 subsystem are listed here.



Data Name

Description

DT59PTOV1$ST$Str$general Starter(DT59-1Picked up)

DT59PTOV1$ST$Str$phsA Starter(DT59-1Picked up)Phase A

DT59PTOV1$ST$Str$phsB Starter(DT59-1Picked up)Phase B

DT59PTOV1$ST$Str$phsC Starter(DT59-1Picked up)Phase C

DT59PTOV1$ST$Op$general Operate(DT59-1Operated)

DT59PTOV1$ST$Op$phsA Operate(DT59-1Operated)Phase A

DT59PTOV1$ST$Op$phsB Operate(DT59-1Operated)Phase B

DT59PTOV1$ST$Op$phsC Operate(DT59-1Operated)Phase C

DT59PTOV2



Data Name

Description









DT59PTOV3


Note:




Data Name

Description









DT59PTOV4


Note:


Data Name

Description









DT59PTOV5


Note:




Data Name

Description









DT59PTOV6


Note:


Data Name

Description









IT59PTOV1

This section defines logical node data for the logical node IT59PTOV1 of the FPRO Protection logical device.

Note:




Data Name

Description

IT59PTOV1$ST$Str$general Starter(IT59-1Picked up)

IT59PTOV1$ST$Str$phsA Starter(IT59-1Picked up)Phase A

IT59PTOV1$ST$Str$phsB Starter(IT59-1Picked up)Phase B

IT59PTOV1$ST$Str$phsC Starter(IT59-1Picked up)Phase C

IT59PTOV1$ST$Op$general Operate(IT59-1Operated)

IT59PTOV1$ST$Op$phsA Operate(IT59-1Operated)Phase A

IT59PTOV1$ST$Op$phsB Operate(IT59-1Operated)Phase B

IT59PTOV1$ST$Op$phsC Operate(IT59-1Operated)Phase C

IT59PTOV2


Note:


Data Name

Description


IT59PTOV2$ST$Str$phsA Starter(IT59-2Picked up)Phase A

IT59PTOV2$ST$Str$phsB Starter(IT59-2Picked up)Phase B

IT59PTOV2$ST$Str$phsC Starter(IT59-2Picked up)Phase C


IT59PTOV2$ST$Op$phsA Operate(IT59-2Operated)PhaseA

IT59PTOV2$ST$Op$phsB Operate(IT59-2Operated)PhaseB

IT59PTOV2$ST$Op$phsC Operate(IT59-2Operated)PhaseC

DT24PVPH1

This section defines logical node data for the logical node DT24PVPH1 of the FPRO Protection logical device.

Note:




Data Name

Description

DT24PVPH1$ST$Str$general Starter(DT24-1Picked up)

DT24PVPH1$ST$Str$phsA Starter(DT24-1Picked up)Phase A

DT24PVPH1$ST$Str$phsB Starter(DT24-1Picked up)Phase B

DT24PVPH1$ST$Str$phsC Starter(DT24-1Picked up)Phase C

DT24PVPH1$ST$Op$general Operate(DT24-1Operated)

DT24PVPH1$ST$Op$phsA Operate(DT24-1Operated)Phase A

DT24PVPH1$ST$Op$phsB Operate(DT24-1Operated)Phase B

DT24PVPH1$ST$Op$phsC Operate(DT24-1Operated)Phase C

DT24PVPH2

This section defines logical node data for the logical node DT24PVPH2 of the FPRO Protection logical device.

Note:


Data Name

Description

DT24PVPH2$ST$Str$general Starter(DT24-2Picked up)

DT24PVPH2$ST$Str$phsA Starter(DT24-2Picked up)Phase A

DT24PVPH2$ST$Str$phsB Starter(DT24-2Picked up)Phase B

DT24PVPH2$ST$Str$phsC Starter(DT24-2Picked up)Phase C

DT24PVPH2$ST$Op$general Operate(DT24-2Operated)

DT24PVPH2$ST$Op$phsA Operate(DT24-2Operated)Phase A

DT24PVPH2$ST$Op$phsB Operate(DT24-2Operated)Phase B

DT24PVPH2$ST$Op$phsC Operate(DT24-2Operated)Phase C

IT24PVPH1

This section defines logical node data for the logical node IT24PVPH3 of the FPRO Protection logical device.

Note:




Data Name

Description

IT24PVPH1$ST$Str$general Starter(IT24-1Picked up)

IT24PVPH1$ST$Str$phsA Starter(IT24-1Picked up)Phase A

IT24PVPH1$ST$Str$phsB Starter(IT24-1Picked up)Phase B

IT24PVPH1$ST$Str$phsC Starter(IT24-1Picked up)Phase C

IT24PVPH1$ST$Op$general Operate(IT24-1Operated)

IT24PVPH1$ST$Op$phsA Operate(IT24-1Operated)Phase A

IT24PVPH1$ST$Op$phsB Operate(IT24-1Operated)Phase B

IT24PVPH1$ST$Op$phsC Operate(IT24-1Operated)Phase C

DT47PTOV1


Note:


Data Name

Description



DT47PTOV2


Note:


Data Name

Description





IT47PTOV1


Note:


Data Name

Description



DT59NPTOV1

This section defines logical node data for the logical node DT59NPTOV1 of the FPRO Protection logical device.

Note:


Data Name

Description

DT59NPTOV1$ST$Str$general Starter(DT59N-1Picked up)

DT59NPTOV1$ST$Op$general Operate(DT59N-1Operated)

DT59NPTOV2

This section defines logical node data for the logical node DT59NPTOV2 of the FPRO Protection logical device.

Note:


Data Name

Description

DT59NPTOV2$ST$Str$general Starter(DT59N-2Picked up)

DT59NPTOV2$ST$Op$general Operate(DT59N-2Operated)



IT59NPTOV1

This section defines logical node data for the logical node IT59NPTOV3 of the FPRO Protection logical device.

Note:


Data Name

Description

IT59NPTOV1$ST$Str$general Starter(IT59N-1Picked up)

IT59NPTOV1$ST$Op$general Operate(IT59N-1Operated)

DT59GPTOV1

This section defines logical node data for the logical node DT59GPTOV1 of the FPRO Protection logical device.

Note:


Data Name

Description

DT59GPTOV1$ST$Str$general Starter(DT59G-1Picked up)

DT59GPTOV1$ST$Op$general Operate(DT59G-1Operated)

DT59GPTOV2

This section defines logical node data for the logical node DT59GPTOV2 of the FPRO Protection logical device.

Note:


Data Name

Description

DT59GPTOV2$ST$Str$general Starter(DT59G-2Picked up)

DT59GPTOV2$ST$Op$general Operate(DT59G-2Operated)



IT59GPTOV1

This section defines logical node data for the logical node IT59GPTOV1 of the FPRO Protection logical device.

Note:


Data Name

Description

IT59GPTOV1$ST$Str$general Starter(IT59G-1Picked up)

IT59GPTOV1$ST$Op$general Operate(IT59G-1Operated)

D81UPTUF1

This section defines logical node data for the logical node D81UPTUF1 of the FPRO Protection logical device.

Note:


Data Name

Description

D81UPTUF1$ST$Str$general Starter(D81U-1Picked up)

D81UPTUF1$ST$Op$general Operate(D81U-1Operated)

D81UPTUF2


Note:




Data Name

Description



D81UPTUF3


Note:

Common Logical Node in formation is not shown here. Only the data that are provided from the F-PRO application to the IEC61850 subsystem are listed here.

Data Name

Description



D81UPTUF4


Note:


Data Name

Description



D81UPTUF5


Note:




Data Name

Description



D81UPTUF6


Note:


Data Name

Description



D81UPTUF7


Note:


Data Name

Description



D81UPTUF8


Note:




Data Name

Description



D81OPTOF1

This section defines logical node data for the logical node D81OPTOF1 of the FPRO Protection logical device.

Note:


Data Name

Description

D81OPTOF1$ST$Str$general Starter(D81O-1Picked up)

D81OPTOF1$ST$Op$general Operate(D81O-1Operated)

D81OPTOF2


Note:


Data Name

Description



D81OPTOF3


Note:




Data Name

Description



D81OPTOF4


Note:


Data Name

Description



D81OPTOF5


Note:


Data Name

Description



D81OPTOF6


Note:




Data Name

Description



D81OPTOF7


Note:


Data Name

Description



D81OPTOF8


Note:


Data Name

Description



D81RPFRC1

This section defines logical node data for the logical node D81RPFRC1 of the FPRO Protection logical device.

Note:




Data Name

Description

D81RPFRC1$ST$Str$general Starter(D81R-1Picked up)

D81RPFRC1$ST$Op$general Operate(D81R-1Operated)

D81RPFRC2


Note:


Data Name

Description



D81RPFRC3


Note:


Data Name

Description



D81RPFRC4


Note:




Data Name

Description



D25RSYN1

This section defines logical node data for the logical node D25RSYN1 of the FPRO Protection logical device.

Note:


Data Name

Description

D25RSYN1$ST$Rel$stVal Operate(D25_27_59Operated)

D6450PSDE1

This section defines logical node data for the logical node D6450PSDE1 of the FPRO Protection logical device.

Note:


Data Name

Description

D6450PSDE1$ST$Str$general Starter(D6450-1Picked up)

D6450PSDE1$ST$Op$general Operate(D6450-1Operated)

D6450PSDE2


Note:




Data Name

Description



D6451PSDE1


Note:


Data Name

Description



D6451PSDE2


Note:


Data Name

Description



D60VTRVTS1

This section defines logical node data for the logical node D60VTRVTS1 of the FPRO Protection logical device.

Note:




Data Name

Description

D60VTRVTS1$ST$Op$general Operate(D60VTSOperated)

THDRTHD1

This section defines logical node data for the logical node THDRTHD1 of the FPRO Protection logical device.

Note:


Data Name

Description

THDRTHD1$ST$Op$general Operate(THD-1Operated)

THDRTHD2

This section defines logical node data for the logical node THDRTHD2 of the FPRO Protection logical device.

Note:


Data Name

Description

THDRTHD2$ST$Op$general Operate(THD-2Operated)

D74RTCS1

This section defines logical node data for the logical node D74RTCS1 of the FPRO Protection logical device.

Note:




Data Name

Description

D74RTCS1$ST$Op$general Operate(D74TCS-1Operated)

D74RTCS2

This section defines logical node data for the logical node D74RTCS2 of the FPRO Protection logical device.

Note:


Data Name

Description

D74RTCS2$ST$Op$general Operate(D74TCS-2Operated)

UVCRUVC1

This section defines logical node data for the logical node UVCRUVC1 of the FPRO Protection logical device.

Note:


Data Name

Description

UVCRUVC1$ST$Op$general Operate(UV_CNT Operated)

OVCROVC1

ThissectiondefineslogicalnodedataforthelogicalnodeOVCROVC1oftheFPRO Protection logical device.

Note:




Data Name

Description

OVCROVC1$ST$Op$general Operate(OV_CNT Operated)

UFCRUFC1

This section defines logical node data for the logical node UFCRUFC1 of the FPRO Protection logical device.

Note:


Data Name

Description

UFCRUFC1$ST$Op$general Operate(UF_CNT Operated)

OFCROFC1

This section defines logical node data for the logical node OFCROFC1 of the FPRO Protection logical device.

Note:


Data Name

Description

OFCROFC1$ST$Op$general Operate(OF_CNT Operated)

EICREIC1

This section defines logical node data for the logical node EICREIC1 of the FPRO Protection logical device.

Note:


Data Name

Description

EICREIC1$ST$Op$general Operate(SI_CNT Operated)



TRCALH1

This section defines logical node data for the logical node TRCALH1 of the FPRO Protection logical device.

Note:


Data Name

Description

TRCALH1.ST.GrWrn.stVal Function(s)Starter Picked up

TRCALH1.ST.GrAlm.stVal Function(s) Trip Operated

HEALTHGGIO1

This section defines logical node data for the logical node HEALTHGGIO1 of the FPRO Protection logical device.


Data Name

Description

HEALTHGGIO1$ST$Ind1$stVal Relay Health Status

HEALTHGGIO1$ST$Ind2$stVal IRIGB Functional Status

LLN0

This section defines logical node data for the logical node LLN0 of the FPRO Protection logical device.

Note:




Data Name

Description

LLN0$SP$SGCB$NumOfSG Number of Setting Groups

LLN0$SP$SGCB$ActSG Active Setting Group

EIGGIO1

This section defines logical node data for the logical node EIGGIO1 of the FPRO Protection logical device.

Note:


Data Name

Description

EIGGIO1$ST$Ind1$stVal ExternalInput1




OCGGIO1

This section defines logical node data for the logical node OCGGIO1 of the FPRO Protection logical device.

Note:


Data Name

Description

OCGGIO1$ST$Ind1$stVal OutputContact1










PLGGIO1

This section defines logical node data for the logical node PLGGIO1 of the FPRO Protection logical device.

Note:


Data Name

Description

PLGGIO1$ST$Ind1$stVal ProLogic1






















LEDGGIO1

This section defines logical node data for the logical node LEDGGIO1 of the FPRO Protection logical device.

Note:

Common Logical Node information is not shown here. Only the data that are provided from the F-PRO application to the IEC61850 sub system are listed here.

Data Name

Description

LEDGGIO1$ST$Ind1$stVal LEDStatus1

LEDGGIO1$ST$Ind2$stVal LED Status2

LEDGGIO1$ST$Ind3$stVal LED Status 3






VIGGIO1

This section defines logical node data for the logical node VIGGIO1 of the FPRO Protection logical device.

Note:




Data Name

Description

VIGGIO1$ST$Ind1$stVal Virtual Input1
































VIGGIO2 This section defines logical node data for the logical nodeVIGGIO2 of the FPRO Protection logical device.

Note:


Data Name

Description

VIGGIO2$ST$Ind1$stVal Subscribed GOOSE Virtual Input1

VIGGIO2$ST$Ind2$stVal Subscribed GOOSE Virtual Input2 VIGGIO2$ST$Ind3$stVal Subscribed GOOSE Virtual Input3 VIGGIO2$ST$Ind4$stVal Subscribed GOOSE Virtual Input4 VIGGIO2$ST$Ind5$stVal Subscribed GOOSE Virtual Input5 VIGGIO2$ST$Ind6$stVal Subscribed GOOSE Virtual Input6 VIGGIO2$ST$Ind7$stVal Subscribed GOOSE Virtual Input7 VIGGIO2$ST$Ind8$stVal Subscribed GOOSE Virtual Input8 VIGGIO2$ST$Ind9$stVal Subscribed GOOSE Virtual Input9 VIGGIO2$ST$Ind10$stVal Subscribed GOOSE Virtual Input10 VIGGIO2$ST$Ind11$stVal Subscribed GOOSE Virtual Input11 VIGGIO2$ST$Ind12$stVal Subscribed GOOSE Virtual Input12 VIGGIO2$ST$Ind13$stVal Subscribed GOOSE Virtual Input13 VIGGIO2$ST$Ind14$stVal Subscribed GOOSE Virtual Input14 VIGGIO2$ST$Ind15$stVal Subscribed GOOSE Virtual Input15 VIGGIO2$ST$Ind16$stVal Subscribed GOOSE Virtual Input16 VIGGIO2$ST$Ind17$stVal Subscribed GOOSE Virtual Input17 VIGGIO2$ST$Ind18$stVal Subscribed GOOSE Virtual Input18 VIGGIO2$ST$Ind19$stVal Subscribed GOOSE Virtual Input19 VIGGIO2$ST$Ind20$stVal Subscribed GOOSE Virtual Input20 VIGGIO2$ST$Ind21stVal Subscribed GOOSE Virtual Input21 VIGGIO2$ST$Ind22$stVal Subscribed GOOSE Virtual Input22 VIGGIO2$ST$Ind23$stVal Subscribed GOOSE Virtual Input23 VIGGIO2$ST$Ind24$stVal Subscribed GOOSE Virtual Input24 VIGGIO2$ST$Ind25$stVal Subscribed GOOSE Virtual Input25 VIGGIO2$ST$Ind26$stVal Subscribed GOOSE Virtual Input26 VIGGIO2$ST$Ind27$stVal Subscribed GOOSE Virtual Input27 VIGGIO2$ST$Ind28$stVal

Subscribed GOOSE Virtual Input28 VIGGIO2$ST$Ind29$stVal

Subscribed GOOSE Virtual Input29 VIGGIO2$ST$Ind30$stVal

Subscribed GOOSE Virtual Input30



VIGGIO3 This section defines logical node data for the logical node VIGGIO3 of the

FPRO Protection logical device.


Data Name

Description

VIGGIO3$ST$Ind1$stVal Virtual Output Control1

VIGGIO3$ST$Ind2$stVal Virtual Output Control 2






















VIGGIO3$ST$Ind24$stVal Virtual Output Control 24 VIGGIO3$ST$Ind25$stVal Virtual Output Control 25








Fault Data Logical Nodes This section defines the logical nodes available for fault data under the FPRO Fault Data logical device. All the protection functions are grouped under 3no: of Logical Nodes detailed as below:

Logical Node Data Objects

Functions Defined

FLTMMXU1$MX$PhV Fault Voltages(VA, VB,VC,VN,VG)

FLTMSQI1$MX$SeqV Fault Voltage(V2)

FLTMMXU1$MX$Hz Fault Frequency

FLTMMXU1$MX$A$neut Fault Current(I2)

FLTDATA1

This section defines the logical node data for the logical node FLTDATA1 of the FPRO Fault Data logical device.

Note:

Common Logical Node information is not shown here. Only the data that are provided from the F-PRO application to the IEC 61850

sub-system are listed here

DataName

Description

FLTMMXU1$MX$PhV$phsA$cVal$mag$f VA- Magnitude

FLTMMXU1$MX$PhV$phsA$cVal$ang$f VA- Angle

FLTMMXU1$MX$PhV$phsB$cVal$mag$f VB -Magnitude

FLTMMXU1$MX$PhV$phsB$cVal$ang$f VB- Angle

FLTMMXU1$MX$PhV$phsC$cVal$mag$f VC - Magnitude

FLTMMXU1$MX$PhV$phsC$cVal$ang$f VC-Angle

FLTMMXU1$MX$PhV$neut$cVal$mag$f VN– Magnitude

FLTMMXU1$MX$PhV$neut$cVal$ang$f VN– Angle

FLTMMXU1$MX$PhV$res$cVal$mag$f VG– Magnitude

FLTMMXU1$MX$PhV$res$cVal$ang$f VG– Angle

FLTMSQI1$MX$SeqV$c2$cVal$mag$f V2 – Neg.Seq. Magnitude(46/50,46/51)

FLTMMXU1$MX$Hz$mag$f Frequency

FLTMMXU1$MX$A$neut$cVal$mag$f IN– Magnitude

FLTMMXU1$MX$A$neut$cVal$ang$f IN– Angle