GE DR60 Technical Manual

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GE
Grid Solutions
DR60
Digital Recorder
Technical Manual
Platform Hardware Version: A
Platform Software Version: 2
Publication Reference: DR60-TM-EN-2.1A
imagination at work
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DR60-TM-EN-2A
CONTENTS
Chapter 1: Introduction 6
1 Foreword 6
1.1 Target Audience 6
1.2 Nomenclature 6
1.3 Abbreviations 7
2 Product Scope 8 3 Unpacking 8 4 External Indication 8
4.1 DR60 Nameplate 8
5 Key Features 9 6 Compliance 10 7 Functional Overview 10 8 Programs Under the GPL License 10 9 Ordering Options 13
Chapter 2: Safety Information 15
1 Health and Safety 15 2 Symbols 15 3 Installation, Commissioning and Servicing 16
3.1 Lifting Hazards 16
3.2 Electrical Hazards 17
3.3 Fusing Requirements 18
3.4 Equipment Connections 19
3.5 Pre-energization Checklist 20
3.6 Peripheral Circuitry 20
3.7 Upgrading/Servicing 21
4 Decommissioning and Disposal 21 5 Standards Compliance 22
5.1 EMC Compliance: 22
5.2 Product Safety 22
5.3 R&TTE Compliance 23
Chapter 3: Design 25
1 Hardware Architecture 25 2 Mechanical Implementation 25
2.1 DR60 Connections Overview and Indicators 26
3 Frequency Calculation 28 Chapter 4: Configuration 29
1 DR60 Configurator Tool 29
1.1 Main Screen 29
1.2 Configuration Tabs 30
1.3 Status Bar 32
2 Access Levels 32 3 Communication Setup and Configuration Files Use 33
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3.1 Configuring Communication Parameters 34
3.2 Creating a New Configuration File 35
3.3 Receiving an Equipment Configuration File 35
3.4 Opening a Pre-existing Configuration File 36
3.5 Saving a Configuration File 36
3.6 Sending a Configuration File for the Equipment 36
4 Tools 36
4.1 LOG 37
4.2 Administrative Tools 37
5 Configuration Tabs 38
5.1 General 38
5.2 Analog 38
5.3 Binary 40
5.4 Communication 41
5.5 Synchronization 48
5.6 Recording 51
5.7 Triggering 53
6 Monitoring and Web Interface 57 7 Alarm and Warning Reporting 58
Chapter 5: Records 61
1 Wave Form Records 61
1.1 Recorded Values 61
1.2 Recording Times by Trigger 61
1.3 Sampling Rate 62
1.4 Trigger Burst Limiter 62
2 Re-trigger and Record Concatenation 62 3 Disturbance and Continuous Disturbance Records 63
3.1 Recorded Values 63
3.2 Recording Times by Trigger 66
3.3 Sampling Rate 67
3.4 Trigger Burst Limiter 67
4 Trend Recorder 67 5 SOE - Sequence of Events Records 67
5.1 Sampling Rate 67
6 Record Format and Naming, and Mass Storage Capacity 67
6.1 Record Format 67
6.2 Record Naming 68
6.3 Mass Storage Capacity 69
7 Record Management and Access 69
7.1 Creating Installations 70
7.2 Creating Devices 70
Chapter 6: PMU 71
1 Synchrophasor Measurement and Broadcast 71
1.1 Reported Values 71
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1.2 Accuracy Limits 71
1.3 Communication Ports, Transmission Rates 72
1.4 Configuration 72
1.5 Transmission Protocol 74
1.6 Communication Mode 75
1.7 Standards Compliance 75
1.8 PMU Specification 76
Chapter 7: Communications 79
1 Communication Interfaces – Slot B 79
1.1 Electrical and Optical Ethernet 79
1.2 Serial Port 80
2 Communication Ports and Protocols 81 3 Recovering the DR60 IP Address 82 4 Accessing the Equipment 82
4.1 Web Interface Minimum Requirements 82
Chapter 8: Installation 83
1 Handling the Goods 83
1.1 Receipt of the Goods 83
1.2 Unpacking the Goods 83
1.3 Storing the Goods 83
1.4 Dismantling the Goods 84
2 Normal Use of the Equipment 84 3 Mounting the Device 84
3.1 DR60 Mechanical Installation 84
4 Cables and Connectors 85
4.1 Power Supply Connections 86
4.2 Powering Up 87
4.3 Earth Connection 88
4.4 IN SERVICE Contact 89
4.5 Optical IRIG-B Input 90
4.6 Serial ports 90
4.7 I/O Nomenclature 91
4.8 Binary Inputs and Outputs 92
4.9 Voltage and Current Analog Inputs 96
5 Case Dimensions 98
5.1 DR60 Dimensions and Weight 98
5.2 Panel Cutout 99
5.3 Accessories 99
6 DR60 Configurator Tools Installation 100
6.1 Minimal requirements 100
Chapter 9: Maintenance 102
1 Maintenance 102
1.1 Maintenance Checks 102
1.2 Back up and restore settings 103
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1.3 Measurement Accuracy 103
1.4 Replacing the Unit 103
1.5 Cleaning 104
1.6 Watchdog 104
2 DR60 Troubleshooting 104 3 DR60 Firmware Update 104 4 Equipment Return 105 5 Instructions for Equipment Repair/Service for Service Personnel 105
Chapter 10: Technical Specifications 107
1 DR60 Specifications 107
1.1 Power Supply 107
1.2 Ethernet Ports 107
1.3 Optical IRIG-Input 108
1.4 Serial Ports 108
1.5 Dry-contact Relay Outputs 109
1.6 Analog Acquisition 110
1.7 Voltage Inputs 110
1.8 Current Inputs 111
1.9 DC Transducer Inputs 112
1.10 Binary Inputs 112
1.11 Binary Outputs 113
1.12 Environmental Conditions 113
1.13 Type Tests DR60 114
1.14 Safety Tests 116
1.15 Environmental tests 116
1.16 Dimensions 117
Chapter 11: Wiring Diagrams 118
1 Connection Diagrams of the Voltage Inputs 118
2 Connection Diagrams of the Current Inputs 120
Appendix A – Equipment Log 123
1 Equipment Log 123
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DR60
Digital Recorder
Chapter 1: Introduction
This chapter provides some general information about the technical manual and an introduction to the device(s) described in this technical manual.
1 Foreword
This technical manual provides a functional and technical description of GE Reason DR60, as well as a comprehensive set of instructions for using the device. The level at which this manual is written assumes that you are already familiar with protection engineering and have experience in this discipline. The description of principles and theory is limited to that which is necessary to understand the product. We have attempted to make this manual as accurate, comprehensive and user-friendly as possible. However, we cannot guarantee that it is free from errors. Nor can we state that it cannot be improved. We would therefore be very pleased to hear from you if you discover any errors, or have any suggestions for improvement. Our policy is to provide the information necessary to help you safely specify, engineer, install, commission, maintain, and eventually dispose of this product. We consider that this manual provides the necessary information, but if you consider that more details are needed, please contact us. All feedback should be sent to our contact center via the following URL:
http://www.gegridsolutions.com/alstomenergy/grid/grid/contactcentre
1.1 Target Audience
This manual is aimed towards all professionals charged with installing, commissioning, maintaining, troubleshooting, or operating any of the products within the specified product range. This includes installation and commissioning personnel as well as engineers who will be responsible for operating the product. The level at which this manual is written assumes that installation and commissioning engineers have knowledge of handling electronic equipment. Also, system and protection engineers have a thorough knowledge of protection systems and associated equipment.
1.2 Nomenclature
Due to the technical nature of this manual, many special terms, abbreviations and acronyms are used throughout the manual. Some of these terms are well-known industry-specific terms while others may be special product-specific terms used by GE.
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1.3 Abbreviations
AC - Alternating Current; COMNAME - IEEE C37.232 Recommended Practice for Naming Time Sequence Data Files; COMTRADE - IEEE C37.111 Common Format for Transient Data Exchange; CID – Configured IED Description DC - Direct Current; DFR – Digital Fault Recorder; EMC - Electromagnetic Compatibility; FRQ - Frequency; GOOSE - Generic Object Oriented Substation Events; GPS - Global Positioning System; HTML - HyperText Markup Language; IMB - Imbalance; IEEE - Institute of Electric and Electronic Engineers; IEC - International Electrotechnical Commission; IED - Intelligent Electronic Devices; IP - Internet Protocol; IRIG-B -Inter Range Instrumentation Group (Rate Designation B); KML - Keyhole Markup Language; MAC - Media Access Control; MODBUS - Modicon Bus; PC - Computer; PMU - Phasor Measurement Unit; Pst - Short-term flicker severity; Plt - Long-term flicker severity; RAM - Random-access Memory; RFC, DEFLATE - RFC 1951, DEFLATE Compressed Data Format Specification; RMS - Root Mean Square; SCADA - Supervisory Control and Data Acquisition; SCD – Substation Configuration Description SCL - Edit Configuration File for the GOOSE Configurator; SNTP - Simple Network Time Protocol; SOE - Sequence of Events; SQL - Structured Query Language; SSD - Solid-state Drive; TCP - Transmission Control Protocol; THD - Total harmonic distortion; TTL – Transistor-transistor-logic; TW - Travelling Wave; UDP - User Datagram Protocol; UTC - Coordinated Universal Time; VLAN - Virtual Local Area Network; XML - Extensible Markup Language.
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2 Product Scope
The DR60 a single-box solution for Digital Recording. The solution is designed for the acquisition, monitoring and recording of electrical quantities normally associated with electrical power generation, transmission or distribution equipment. The DR60 is designed fan-less and no rotating part components. It has a 16-bit acquisition system that provide an acquisition rate of 256 or 512 samples/cycle synchronized by the IRIG-B or IEEE 1588 PTPv2. The DR60 has a very flexible architecture with several different boards with allows the customer to choose the most cost-effective solution for each application. Depending on the boards combination, the DR60 can offer: up to 32 analog channels, 96 digital channels and 48 digital outputs The DR60 is a native IEC 61850 device, which means that all its internal variables follow the data models and logical nodes described in the IEC 61850 edition 2. The DR60 is able to publish and subscribe to GOOSE messages, as well as publish Report control blocks for supervisory system integration. It allows communication through the electrical Ethernet ports or optical interfaces.
3 Unpacking
Unpack the equipment carefully and make sure that all accessories and cables are put away so they will not be lost. Check the contents against the packing list. If any of the contents listed is missing, please contact GE immediately (see contact information at the beginning of this manual). Examine the equipment for any shipping damage. If the unit is damaged or fails to operate, notify the shipping company immediately. Only the consignee (the person or company receiving the unit) can file a claim against the carrier for occasional shipping damages. We recommend that the user retain the original packing materials for use in case of need to transport or ship the equipment at some future time.
4 External Indication
4.1 DR60 Nameplate
Information about the company, power supply, the serial number and part number is shown on a small nameplate affixed to the rear of the equipment, as shown in figure below.
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Location of Serial Number, Part Number and specifications
5 Key Features
The DR60 presents the following key features:
Acquisition system:
16-bit opto-isolated analog-to-digital converters, independent for each
channel (50/60 Hz channels);
256 and 512 samples/cycle (50/60 Hz channels); Frequency response of DC to approximately 3.0 kHz; Opto-isolated digital inputs Internal time skew compensation; Sampling rate synchronized to external time reference;
Channel capacity:
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Up to 16 voltage inputs; Up to 16 current inputs; Up to 16 transducer voltage inputs; Up to 16 transducer current inputs; Up to 96 digital inputs;
Note: Maximum capacity of channels depends on boards combination
Fan-less and no rotating part design
Waveform recorder at 256 and 512 samples/cycle;
Disturbance and continuous disturbance at 1, 2 or 4 samples/cycle;
IRIGB-004 and IEEE 1588 PTPv2
Trigger using Boolean logic equations;
GOOSE publisher and subscriber (up to 256 GOOSE inputs)
MMS report control block publisher
Cross-trigger using GOOSE messages;
RS232 serial ports for configuration;
1 failsafe contact (normally closed dry contact relay);
6 Compliance
The device has undergone a range of extensive testing and certification processes to ensure and prove compatibility with all target markets. A detailed description of these criteria can be found in the Technical Specifications chapter.
7 Functional Overview
It is a single-box solution design for substation environment and offers a very flexible combination of boards, which allows the customers to have up to 32 analog inputs and up to 96 binary inputs. These characteristics along with binary outputs options and two Ethernet ports, make the DR60 ideal to monitor up to 3 bays (considering 8 analog and 16 binary inputs per bay). The DR60 provides a cost-effective solution for disturbance recording through a distributed approach. It can be installed locally on a per-feeder basis or interconnected via peer-to-peer GOOSE messaging that allows cross-triggering to occur without the need to hard-wire the contacts, providing a scalable solution to station-level recording. The DR60 complements relays by providing independent, high fidelity waveform capture. It provides Waveform recorders, SOE and triggered and continuous disturbance recorders - not typically found even in the most advanced digital relays. It also provides features such GOOSE publisher and subscriber and MMS report control blocks for integration with supervisory systems.
8 Programs Under the GPL License
The DR60 uses GPL licenses in its implementation according to the following table:
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PACKAGE
LICENSE
glibc
GPLv2+ (programs), LGPLv2.1+, BSD-3c, MIT (library)
linux-
headers
GPLv2
bash
GPLv3+
busybox
GPLv2
ncurses
MIT with advertising clause
readline
GPLv3+
e2fsprogs
GPLv2, libuuid BSD-3c, libss and libet MIT-like with
advertising clause
util-linux
GPLv2+, BSD-4c, libblkid and libmount LGPLv2.1+,
libuuid BSD-3c
zlib
zlib license
ethtool
GPLv2
gptfdisk
GPLv2+
htop
GPLv2
irqbalance
GPLv2
lighttpd
BSD-3c
pcre
BSD-3c
mtd
GPLv2
mxml
LGPLv2+ with exceptions
netsnmp
Various BSD-like
openssl
OpenSSL or SSLeay
openssh
BSD-3c BSD-2c Public Domain
parted
GPLv3+
pps-tools
GPLv2+
sudo
ISC BSD-3c
uboot-tools
GPLv2+
vsftpd
GPLv2
linux
GPLv2
kermit
BSD
libiec61850
GPLv3
mms-client
GPLv3
ntp-
internal
ntp license
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ptpd-
internal
BSD
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9 Ordering Options
Variants
Order Number
1-4 5 6
7-8
9­10
11­12
13­14
15­16
17­18
19­20
21
22-23
24
25
Model type:
DR60 Digital Recorder
DR 60
Slot A - Power Supply
24-48 Vdc
1
100-250 Vdc / 110-240 Vac
3 Slot B - Hardware Options
Processing unit + two RJ45 copper 10/100BASE-TX Ethernet interfaces
E
Processing unit + two multimode LC-type connector 100BASE-FX Ethernet interfaces
O
Slot C - Binary I/O
16 x 24/48/125/250 V binary inputs
B1
6 x 24/48/125/250 V binary inputs and 8 x binary outputs
B2
Not installed
XX Slot D - Binary I/O
16 x 24/48/125/250 V binary inputs
B1 6 x 24/48/125/250 V binary inputs and 8 x binary outputs
B2 Not installed
XX
Slot E - Flexible I/O Options
16 x 24/48/125/250 V binary inputs
B1
6 x 24/48/125/250 V binary inputs and 8 x binary outputs
B2
4 x VT 115 V and 4 CT 1/5 A RMS measurement analog inputs
ME
4 x VT 115 V and 4 x CT 1 A RMS protection analog inputs
P1
4 x VT 115V and 4 x CT 5 A RMS protection analog inputs
P5
4 x ±10 Vdc and 4 x 0-20 mAdc transducer inputs
DC
Not installed
XX
Slot F - Flexible I/O Options
16 x 24/48/125/250 V binary inputs
B1 6 x 24/48/125/250 V binary inputs and 8 x binary outputs
B2
4 x VT 115 V and 4 CT 1/5 A RMS measurement analog inputs
ME 4 x VT 115 V and 4 x CT 1 A RMS protection analog inputs
P1 4 x VT 115V and 4 x CT 5 A RMS protection analog inputs
P5 4 x ±10 Vdc and 4 x 0-20 mAdc transducer inputs
DC Not installed
XX
Slot G - Flexible I/O Options
16 x 24/48/125/250 V binary inputs
B1
6 x 24/48/125/250 V binary inputs and 8 x binary outputs
B2
4 x VT 115 V and 4 CT 1/5 A RMS measurement analog inputs
ME
4 x VT 115 V and 4 x CT 1 A RMS protection analog inputs
P1
4 x VT 115V and 4 x CT 5 A RMS protection analog inputs
P5
4 x ±10 Vdc and 4 x 0-20 mAdc transducer inputs
DC
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Not installed
XX
Slot H - Flexible I/O Options
16 x 24/48/125/250 V binary inputs
B1 6 x 24/48/125/250 V binary inputs and 8 x binary outputs
B2 4 x VT 115 V and 4 CT 1/5 A RMS measurement analog inputs
ME 4 x VT 115 V and 4 x CT 1 A RMS protection analog inputs
P1 4 x VT 115V and 4 x CT 5 A RMS protection analog inputs
P5
4 x ±10 Vdc and 4 x 0-20 mAdc transducer inputs
DC Not installed
XX
Primary Functions
Phasor Measurement Unit (PMU)
**
Waveform recorder
**
Disturbance Recorder
**
Continuous Disturbance Recorder
**
Trend Recorder
**
Secondary Functions
Standard Issue
1
Firmware Version
Latest available firmware - 02
02
Warranty
Standard warranty
0
Hardware Design Suffix
Initial version
A
Issue B
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Chapter 2: Safety Information
This chapter provides information about the safe handling of the equipment. The equipment must be properly installed and handled in order to maintain it in a safe condition and to keep personnel safe at all times. You must be familiar with information contained in this chapter before unpacking, installing, commissioning, or servicing the equipment.
1 Health and Safety
Personnel associated with the equipment must be familiar with the contents of this Safety Information. When electrical equipment is in operation, dangerous voltages are present in certain parts of the equipment. Improper use of the equipment and failure to observe warning notices will endanger personnel. Only qualified personnel may work on or operate the equipment. Qualified personnel are individuals who are:
familiar with the installation, commissioning, and operation of the equipment
and the system to which it is being connected.
familiar with accepted safety engineering practices and are authorized to
energies and de-energies equipment in the correct manner.
trained in the care and use of safety apparatus in accordance with safety
engineering practices
trained in emergency procedures (first aid).
The documentation provides instructions for installing, commissioning and operating the equipment. It cannot, however cover all conceivable circumstances. In the event of questions or problems, do not take any action without proper authorization. Please contact your local sales office and request the necessary information.
Each product is subjected to routine production testing for Dielectric Strength and Protective Bonding Continuity
2 Symbols
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Throughout this manual you will come across the following symbols. You will also see these symbols on parts of the equipment.
Caution: Refer to equipment documentation. Failure to do so could result in damage to the equipment
Risk of electric shock
Ground terminal. Note: This symbol may also be used for a protective conductor (ground) terminal if that terminal is part of a terminal block or sub-assembly.
Protective conductor (ground) terminal
Chassis functional earth terminal
Both direct and alternating current
Instructions on disposal requirements
The term 'Ground' used in this manual is the direct equivalent of the European term 'Earth'.
3 Installation, Commissioning and Servicing
3.1 Lifting Hazards
Many injuries are caused by:
Lifting heavy objects
Lifting things incorrectly
Pushing or pulling heavy objects
Using the same muscles repetitively
Plan carefully, identify any possible hazards and determine how best to move the product. Look at other ways of moving the load to avoid manual handling. Use the correct lifting techniques and Personal Protective Equipment (PPE) to reduce the risk of injury.
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3.2 Electrical Hazards
All personnel involved in installing, commissioning, or servicing this equipment must be familiar with the correct working procedures.
Consult the equipment documentation before installing, commissioning, or servicing the equipment.
Always use the equipment as specified. Failure to do so will jeopardize the protection provided by the equipment.
Removal of equipment panels or covers may expose hazardous live parts. Do not touch until the electrical power is removed. Take care when there is unlocked access to the rear of the equipment.
Isolate the equipment before working on the terminal strips.
Use a suitable protective barrier for areas with restricted space, where there is a risk of electric shock due to exposed terminals.
Disconnect power before disassembling. Disassembly of the equipment may expose sensitive electronic circuitry. Take suitable precautions against electrostatic voltage discharge (ESD) to avoid damage to the equipment.
NEVER look into optical fibers or optical output connections. Always use optical power meters to determine operation or signal level.
Testing may leave capacitors charged to dangerous voltage levels. Discharge capacitors by reducing test voltages to zero before disconnecting test leads.
If the equipment is used in a manner not specified by the manufacturer, the protection provided by the equipment may be impaired.
Operate the equipment within the specified electrical and environmental limits.
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Before cleaning the equipment, ensure that no connections are energized. Use a lint free cloth dampened with clean water.
Integration of the equipment into systems shall not interfere with its normal functioning.
The functioning of the device has been certified under the circumstances described by the standards mentioned in
Technical Specifications chapter (item Type Tests). Usage of the equipment in different conditions from the specified in this manual might affect negatively its normal integrity.
The equipment shall have all their rear connectors attached even if they are not being used, in order to keep their levels of ingress protection as high as possible
Never manipulate liquid containers near the equipment even when it is powered off.
Avoid modification to the wiring of panel when the system is running.
VT circuits must never be left short circuited.
3.3 Fusing Requirements
A high rupture capacity (HRC) fuse type with a maximum current rating of 10 Amps and a minimum dc rating of 250 V dc may be used for the auxiliary supply (for example Red Spot type NIT or TIA). Alternatively, a miniature circuit breaker (MCB) of type C, 10A rating, compliant with IEC 60947-1 and IEC 60947-3 may be used.
Digital input circuits should be protected by a high rupture capacity NIT or TIA fuse with maximum rating of 10 A, or equivalent MCB as above. For safety reasons, current transformer circuits must never be fused. Other circuits should be appropriately fused to protect the wire used.
Reason devices contain an internal fuse for the power supply which is only accessed by opening the product. This does not remove the requirement for external fusing or use of an MCB as previously mentioned. The ratings of the internal fuses are:
DR60 unit: 2 Amp, type T, 250V rating
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CTs must NOT be fused since open circuiting them may produce lethal hazardous voltages.
3.4 Equipment Connections
Terminals exposed during installation, commissioning and maintenance may present a hazardous voltage unless the equipment is electrically isolated.
Tighten M3 clamping screws of heavy duty terminal block connectors to a nominal torque of 1.0 Nm. Tighten captive screws of header-type (Euro) terminal blocks to
0.5 Nm minimum and 0.6 Nm maximum.
Always use insulated crimp terminations for voltage and current connections.
Always use the correct crimp terminal and tool according to the wire size.
In order to maintain the equipment’s requirements for protection against electric shock, other devices connected to the DR60 shall have protective class equal or superior to Class I.
Watchdog (self-monitoring) contacts are provided to indicate the health of the device on some products. We strongly recommend that you hard wire these contacts into the substation's automation system, for alarm purposes.
Earth the equipment with the supplied PCT (Protective Conductor Terminal).
Do not remove the PCT.
The PCT is sometimes used to terminate cable screens. Always
check the PCT’s integrity after adding or removing such earth
connections.
The user is responsible for ensuring the integrity of any protective conductor connections before carrying out any other actions.
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The PCT connection must have low-inductance and be as short as possible. For best EMC performance, ground the unit using a 10 mm (0.4 inch) wide braided grounding strap.
All connections to the equipment must have a defined potential. Connections that are pre-wired, but not used, should be earthed, or connected to a common grouped potential.
Pay extra attention to diagrams before wiring the equipment. Always be sure that the connections are correct before energizing the circuits.
3.5 Pre-energization Checklist
Check voltage rating/polarity (rating label/equipment documentation).
Check CT circuit rating (rating label) and integrity of connections.
Check protective fuse or miniature circuit breaker (MCB) rating.
Check integrity of the PCT connection.
Check voltage and current rating of external wiring, ensuring it is appropriate for the application.
3.6 Peripheral Circuitry
Do not open the secondary circuit of a live CT since the high voltage produced may be lethal to personnel and could damage insulation. Short the secondary of the line CT before opening any connections to it.
Reason devices DO NOT feature any automatic CT shorting feature. Therefore, external shorting of the CTs is mandatory. Check the equipment documentation and wiring diagrams carefully.
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Where external components such as resistors or voltage dependent resistors (VDRs) are used, these may present a risk of electric shock or burns if touched.
Operation of computers and equipment connected to the DR60 under environmental conditions such as temperature and humidity that exceed the conditions specified in their respective manuals can cause malfunctioning or even irreversible damage to them or the nearby installation.
There might be situations in which the DR60 is operating within its environmental operational range, but the computers, equipment connected to them or nearby equipment are operating outside their operational range. That situation can cause malfunctioning and/or irreversible damage to those devices. In that occasion the communication to the Reason equipment might be compromised but its recording, operational and safety capacities will not be affected.
Take extreme care when using external test blocks and test plugs such as the MMLG, MMLB and P990, as hazardous voltages may be exposed. Ensure that CT shorting links are in place before removing test plugs, to avoid potentially lethal voltages.
3.7 Upgrading/Servicing
Do not insert or withdraw modules, PCBs or expansion boards from the equipment while energized, as this may result in damage to the equipment. Hazardous live voltages would also be exposed, endangering personnel.
Internal modules and assemblies can be heavy and may have sharp edges. Take care when inserting or removing modules into or out of the IED.
4 Decommissioning and Disposal
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Before decommissioning, completely isolate the equipment power supplies (both poles of any dc supply). The auxiliary supply input may have capacitors in parallel, which may still be charged. To avoid electric shock, discharge the capacitors using the external terminals before decommissioning.
Avoid incineration or disposal to water courses. Dispose of the equipment in a safe, responsible and environmentally friendly manner, and if applicable, in accordance with country-specific regulations.
5 Standards Compliance
Compliance with the European Commission Directive on EMC and LVD is demonstrated using a Technical File.
5.1 EMC Compliance:
Compliance with IEC 60255-26:2013 was used to establish conformity.
5.2 Product Safety
Compliance with IEC 60255-27:2014 was used to establish conformity.
Protective Class
IEC 60255-27:2014 Protective Class 1. This equipment requires a protective conductor (earth) to ensure user safety.
Installation category
When using the 100-250 Vdc / 110-240 Vac power supply: IEC 60255-27:2013
Installation category III (Overvoltage Category III). Equipment in this category is qualification tested at 5kV peak, 1.2/50 μS, 500 Ohms, 0.5 J, between all supply circuits and earth and also between independent circuits.
When using the 24-48 Vdc power supply: IEC 60255-27:2013 Installation category II
(Overvoltage Category II)
Environment
IEC 60068-2-1, IEC 60068-2-2, IEC 60068-2-30, IEC 60068-2-14, IEC 60255-21-1, IEC 60255-21-2. The equipment shall always be installed in a specific cabinet or housing which will enable it to meet the requirements of IEC 60529 with the classification of degree of protection IP54 or above.
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5.3 R&TTE Compliance
Radio and Telecommunications Terminal Equipment (R&TTE) directive 99/5/EC. Conformity is demonstrated by compliance to both the EMC directive and the Low Voltage directive, to zero volts.
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Chapter 3: Design
This chapter provides information about the hardware design of the products.
1 Hardware Architecture
The DR60 is composed of up to 8 boards, from slot A to H. A very flexible number of inputs and outputs can be achieved by the combination of the boards. The slot A is reserved for power supply; Slot B for CPU, Ethernet and serial connection and IRIGB synchronization input; Slots C and D are used for binary input/outputs and slots E to H can be used either for binary I/O or analog inputs. The figure below illustrates the DR60 slots composition. For the complete list of board option, refer to the ordering option in Chapter 1.
DR60 slots composition
2 Mechanical Implementation
Power Supply
CPU/Communication
Digital Board Digital Board
Analog or Digital Analog or Digital Analog or Digital Analog or Digital
A
C
D E F
G
H
Slots
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2.1 DR60 Connections Overview and Indicators
The figure below shows the DR60 front panel with connectors and indicator LEDs.
Front View of the DR60
The diagram and table below show the designation and meaning of each LED.
Power LED
Indicator LEDs
Alarm
In Service
Trigger
Sync
Failsafe relay
Power Supply
Binary I/O
Binary I/O or analog inputs
Ethernet interfaces
Serial Interfaces
IRIGB Input
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LED
Color
Indicator
Meaning
Alarm
Orange
Warning
An alarm event that does not compromise the DR60 functions was detected
Red
Alarm
An alarm event that compromised DR60 functions was detected
In Service
Green
In Service
DR60 is working in perfect conditions
Sync
Green
Global
DR60 is synchronized with the time reference clock that is synchronized with satellite reference
Orange
Local
DR60 is synchronized with the time reference clock that is not synchronized with satellite reference
Trigger Green
Trigger
Any trigger occurred
Orange
Re-trigger
Any trigger reoccurred
The table below shows which events are considered alarms and warnings.
Alarms
Data Name
Description
Sync NOT OK
BSE/ALARMSGGIO1.Alm1
Card not detected, invalid or incompatible
BSE/ALARMSGGIO1. Alm2
Happens when there are discrepancies between the installed boards and the device CORTEC
Internal voltage
BSE/ALARMSGGIO1. Alm3
Internal voltage automonitoring alarm
Internal temperature
BSE/ALARMSGGIO1. Alm4
Internal temperature is abnormal (Out of -10°C to 60ºC)
No communication Ethernet interface 1
BSE/ALARMSGGIO1. Alm5
Loss of communication with ethernet interface 1
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Waveform/Fault recorder memory usage above 98%
BSE/ALARMSGGIO1. Alm6
Happens when the memory becomes 98% full for waveform recorder
Disturbance recorder memory usage above 98%
BSE/ALARMSGGIO1. Alm7
Happens when the memory becomes 98% full for disturbance recorder
Trend recorder memory usage above 98%
BSE/ALARMSGGIO1. Alm8
Records memory exceeds 98% for trend recorder
SOE recorder memory usage above 98%
BSE/ALARMSGGIO1. Alm9
Records memory exceeds 98% for SOE recorder
GOOSE subscriber failure or timeout
BSE/ALARMSGGIO1. Alm10
Time for the next expected GOOSE message to come exceeded
Warnings
Data Name
Description
Sync OK
BSE/ALARMSGGIO1.Wrn1
Equipment not sync
No communication Ethernet interface 2
BSE/ALARMSGGIO1. Wrn5
Loss of communication with ethernet interface 2
Waveform/Fault recorder memory usage above 90%
BSE/ALARMSGGIO1. Wrn6
Happens when the memory becomes 90% full for waveform recorder
Disturbance recorder memory usage above 90%
BSE/ALARMSGGIO1. Wrn7
Happens when the memory becomes 90% full for disturbance recorder
Trend recorder memory usage above 90%
BSE/ALARMSGGIO1. Wrn8
Records memory exceeds 90% for trend recorder
SOE recorder memory usage above 90%
BSE/ALARMSGGIO1. Wrn9
Records memory exceeds 90% for SOE recorder
3 Frequency Calculation
The DR60 calculates frequency applying a moving average filter in the derivative of the angle of the positive sequence voltage, the angle is calculated four times per cycle and so is the frequency.
.
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DR60
Digital Recorder
Chapter 4: Configuration
This chapter includes detailed instructions of how to configure all available features in the device.
1 DR60 Configurator Tool
The DR60 Configurator the is the DR60’s ICT (IED configuration tool). It allows the
modification of all configurable functionalities of the device, including communication aspects, recorders, binary I/O etc.
1.1 Main Screen
The figure below shows the main screen of the DR60 Configurator. This screen is accessed by opening an existing configuration, reading the device configuration or creating a new configuration.
The DR60 Configurator is available in the following languages:
- English;
- French;
- Spanish and;
- Portuguese.
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DR60 Configurator main screen
Below is described the main common menu options on the screen according to the highlights on the figure above:
A Menu bar: New Configuration.
B Menu bar: Open Configuration.
C Menu bar: Save Configuration.
D Menu bar: Save Configuration As.
E Export Configuration Report: Exports PDF report with the configured parameters.
F Menu bar: Receive Configuration: download configuration from the DR60.
G Menu bar: Send Configuration: send configuration to the DR60.
H Menu bar: User: Shows which level of user is currently connected (Configuration, I
Administration).
I Menu bar: Exit
J Configuration tabs: contain all the device configuration divide by categories.
K Configuration sub-tabs: divide a tab the configuration into groups for ease of
configuration
L IP address of the DR60 currently connected to the DR Configurator.
M Add a new circuit or remove the selected circuit. Selecting a circuit and pressing
delete will also remove the circuit.
N Selects the nominal frequency of the system (50 Hz or 60 Hz)
1.2 Configuration Tabs
L
A B C D E F G
I J KH M
N
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The settings tabs contain all configurable parameters of the equipment divided by categories. There are seven settings tabs, as shown in the figure below.
DR60 Configurator Settings Tabs
Through the setting tabs it is possible to configure all the equipment parameters, as detailed on the table below. The possible configurations and the procedure to configure each parameter will be described in the next sections. Hover the mouse cursor over the text fields of the configurable parameters to show the range of values or the possible characters. The table below describes the menu options:
Tab
Sub-tab
Description
General
Physical Device (LPHD)
Contains the values and parameters of the Physical Device logical node (LPHD), such as: Model, Identifier, Location etc.
Analog
Bay Arrangements (MMXU/MMXN)
Configures name tags/descriptions and associates the analog physical terminals to the measurements circuits, sets the CT/VT ratios; nominal frequency. Enables calculations such as: RMS, power, frequency, symmetrical components, THD, average values, PMU and impedance fault location
Generic Sensors (TGSN)
Configures name parameters for the transducer inputs ± 10V and 20 mA dc
Binary
Binary Inputs
Configures the voltage level, debouncing time and polarity of the binary inputs.
GOOSE Inputs
Enables and configures the tags of the GOOSE inputs
Communication
Physical
Configures parameters related to the Ethernet and serial ports, such as: PRP redundancy, IP Address etc.
Dataset
Adds and edits the datasets to be sent via GOOSE of MMS
GOOSE Publisher
Associates the datasets to GOOSE Control Blocks to be published.
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GOOSE Subscriber
Configures the GOOSE subscriptions using the SCL files from the IEDs publishing GOOSE.
Reports
Associates the datasets to Report Control Blocks to be published.
C37.118.2-2011 (PMU)
Configures the communication parameters regarding the PMU streams according to C37.118.2-2011
DNP3
Configures the communication parameters of the DNP3 stream
Synchronization
Synchronization
Configure the synchronization source/protocol, timezone and daylight saving time parameters.
Recording
Recording
Configures the parameters of the DR60 recorders (Waveform, disturbance, continuous disturbance and SOE), such as: pre, post time, sampling rate and others.
Triggering
Thresholds (RADR)
Contains the thresholds to trigger the DR60 waveform and disturbance recorder
Equations
Allows the creation of logical equations using the DR60 variables (inputs, logical nodes parameters).
Matrix
Configures which thresholds, binary/GOOSE inputs or equations will trigger the DR60 recorders. Also, configures the DR60 binary outputs.
1.3 Status Bar
Status bar presents the software name, the connection status (if it is connected, reading or sending configurations), and the Ethernet IP address, as shown in the figure below.
DR60 Configurator Status Bar
2 Access Levels
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The DR60 Configurator has three access levels, each one with a corresponding user name. The MON user is able access the DR60 Logs; The CFG user is able to access the DR60 logs, to create, receive and send configurations and to change its own password. The ADM user is able to do all that CFG user is able to, plus firmware update, device key change and alter all users passwords. Password is not required to access the web monitoring page The user names and default password are presented below:
User
Password
CFG
UV@bM8DtqAN
ADM
RX8jg3S&mDx
MON
QcURcm"Gk3P
3 Communication Setup and Configuration Files Use
This section describes how to configure the communications parameters and how to manipulate configuration files (CID), using the DR60 Configurator. The initial screen of the DR60 Configurator application is shown in the figure below and has the following options:
DR60 Configurator initial screen
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A <New>: creates a new configuration file. B <Receive>: receives a configuration file from the DR60 configured in the
Communication menu.
C <Open>: this button opens a file containing a pre-existing configuration. D <Communication>: this button opens communications parameters for connecting
settings.
E <HMI>: this button opens the window containing information about the device. F <Administrative Tools>: this button opens the window containing the following
options:
Firmware update; Key update; Access control – allows changing the password for each kind of user (CFG,
ADM and MON);
Support file – Downloads a support file containing internal logs used for
diagnosis. On the initial screen, it is also possible to change the software language by clicking the icon on the bottom right corner.
3.1 Configuring Communication Parameters
The <Communication> button on the initial screen opens the Communication Setup screen that allows the configuration of the parameters to connect with the DR60. The DR60 Configurator can communicate with the DR60 using serial RS232/RS485 or Ethernet interfaces. The serial ports parameters and the IP address of the to be connectedDR60. The following option are available on the screen:
Serial:
Ports Speed Data Bits Parity Stop Bits
Ethernet
IP Address Name: inserts the identification name of this connection. Saved Connections: shows the name of the saved connections. <Add>: this button adds a connection name to the Saved
Connections area.
<Remove>: this button removes a selected connection name from
the Saved Connections area.
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3.1.1 IP Address Scanning
The DR60 Configurator is able to scan the Ethernet network and recover the IP Addresses of the connected DR60s. This tools is useful when the IP Address of the DR60 the user wants to communicate is not known. The IP Address Scanning tool is located on the Communication setup screen.
3.2 Creating a New Configuration File
In order to create a new configuration, click on the <New> button on the initial screen of the DR60 Configurator. It opens a window to configure the order code of the equipment, according to hardware configuration.
A Order Code: the order code must be created based on the equipment hardware configuration. On each field insert the configuration of the respective slot. The order code of the equipment is displayed on the label affixed on the equipment. For additional information about the formation of the order code, refer to APPENDIX A. B <Cancel>: this button cancels the order code edition and goes back to the initial screen of the DR60 Configurator. C <Ok>: this button confirms the order code edition and opens the main screen of the DR60 Configurator. It is also possible to create a new configuration file through the Main Screen of the DR60 Configurator, by selecting the option New CID on the File menu.
3.3 Receiving an Equipment Configuration File
To receive an online equipment configuration, click on the <Receive> button on the initial screen of the DR60 Configurator. The configurator will communicate with the IP Address or serial configuration configured in the Communication Setup screen and download the DR60 current configuration loading it on the main Screen of the DR60 Configurator. It is also possible to receive an equipment configuration file from the Main Screen of the DR60 Configurator, by selecting the option Receive Configuration on the Menu Bar. After clicking the Receive button, an authentication window will pop up asking for a user and a password to complete the operation. The possible user names and passwords are:
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User
Password
CFG
UV@bM8DtqAN
ADM
RX8jg3S&mDx
3.4 Opening a Pre-existing Configuration File
In order to open a pre-existing configuration, click on the <Open> button on the initial screen of the DR60 Configurator. It opens the Windows© folder where the configuration files are saved: Choose the configuration file and the Main Screen of the DR60 Configurator will open, with the selected configuration file loaded. It is also possible to open a configuration file from the Main Screen of the DR60 Configurator, by selecting the option Open Configuration on the menu on the Menu Bar.
3.5 Saving a Configuration File
To save an opened configuration, select the option Save Configuration or Save Configuration As, on the File menu of the Main Screen of the DR60 Configurator. When saving a configuration, the DR60 Configurator will create three different files: *.CID file: saves the communication and recorders configuration. The DR60 uses the SCL schema 3.1 from the IEC 61850 data models; *.st file: saves the logic equation and the matrix of I/O and triggering configuration according to the IEC 61131 Structured Text Language (STL). *extref: saves the external references for the GOOSE subscriber configuration.
3.6 Sending a Configuration File for the Equipment
To send a configuration file to online equipment, select the option Send Configuration, on the Menu Bar.
4 Tools
The Tools section of the Initial screen presents two different tools: Log: monitored and downloads the DR60 logs Administrative Tools: Firmware upgrade, password management, equipment license upgrade and support file download.
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Upon clicking the menus, an authentication window will pop up asking for a user and a password to complete the operation The possible user names and passwords are:
User
Password
CFG
UV@bM8DtqAN
ADM
RX8jg3S&mDx
MON
QcURcm"Gk3P
The tools menus are described in the next sections.
4.1 LOG
The equipment maintains a history of the last 10000 system events that can be downloaded in from the DR60. The logs visualization screen can show up to 2000 events. The option on the Log screen are described below:
A IED Name: indicates IED Name. B IP Address: indicates IP of the device that the software is connected to. C Period: chooses the period of time to be displayed, from oldest to most recent. D Codes: searches specific logs or time intervals. For example, search a log between 300
and 399, just enter 3??, and to search a list, enter 2??, 507, 700. Codes shall be entered with 3 digits.
E <Refresh>: this button shows the list of logs according to the filtering parameters. F <Download>: this button downloads the log files to the folder. G Time stamp: indicates the date and time of event log (yyyymm-dd hh:mm:ss[.uuuuuu]
± 0000 (UTC time offset).
H Code: indicates the log code. I Description: describes the log.
4.2 Administrative Tools
This menu allows the user to perform the following configurations:
Access Control – allows changing the password for each kind of user (CFG,
ADM and MON);
Firmware Update; License Update; Support File – Downloads a support file containing internal logs used for
diagnosis.
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5 Configuration Tabs
5.1 General
The General configuration tab contains information related to the physical device logical node (LPHD) of the DR60. On this screen, it is shown the information of the respective device:
Model (CORTEC) Vendor (General Electric Company) Hardware Version Firmware Version Serial Number
Moreover, the following parameter can be configured:
Identifier: Up to 61 characters. Possible characters: a-z, A-Z, a-9, _. Location: Up to 255 characters. Possible characters: a-z, A-Z, a-9, _. Owner: Up to 255 characters. Possible characters: a-z, A-Z, a-9, _. LPHD Prefix: Up to 11 characters. Possible characters: a-z, A-Z, a-9, _. Electric Power System: Up to 255 characters. Possible characters: a-z, A-Z, a-9,
_.
Primary Operator: Up to 255 characters. Possible characters: a-z, A-Z, a-9, _. Secondary Operator: Up to 255 characters. Possible characters: a-z, A-Z, a-9, _. Master Resource Identification: Up to 255 characters. Possible characters: a-z,
A-Z, a-9, _.
Latitude: Possible characters: 0.0-90.0. Longitude: Possible characters: 0.0-180.0. Altitude: Possible characters: 0.0-10000.0
5.2 Analog
The Analog configuration tab contains configurations related to the analog channels and circuits and it is divided into two sub-tabs: Instrument Transformer (TCTR/TVTR); and Bay Arrangement (MMXU/MMXN).
5.2.1 Bay Arrangement (MMXU/MMXN)
This window allows the configuration of the analog inputs. The configuration includes the circuit description tag, association with physical inputs, nominal values for
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instrument transformer ratio calculation; activation of: trend measurement calculation, PMU calculation and impedance fault location.
The following configurations are available:
Current and Voltage circuits:
Nominal Frequency: Selects the nominal frequency of the system between 50
Hz and 60 Hz
Add a new circuit or remove the selected circuit. Selecting a circuit and
pressing delete will also remove the circuit.
Description: Enters a description for the circuit. Up to 256 of any characters is
allowed.
Phase A, Phase B, Phase C, Phase N: Associate each phase of the circuit with its
respective physical input
Nominal Value: Configures the nominal value of the primary of the instrument
transformers. This value is used for transformer ratio calculation and
thresholds/triggers.
Measurement: Shows all the logical nodes associated with the respective
circuit and by clicking the sign the following window will open.
o This window allows the following configuration:
Trend calculation activation PMU Class M or P activation. The DR60 supports up to 4
PMUs, each class will count as 1 PMU even if they are from the same circuit. When a PMU is activated a logical node associated to it and dataset is automatically created with all the synchrophasor, frequency and rate of change of frequency of the respective circuit.
Impedance Fault Locator calculation. The line parameters
are configured in the advanced settings right on the right side of the window. The fault location is treated according to the IEC 61850 logical node for fault location: RFLO. The fault location can be sent via MMS of DNP3 by selecting the data attribute RFLOxFltDiskm.mag.f within the MX functional constraint.
Advanced: Allows the following configuration. Name: Enter name tags for each analog input. Maximum characters: 10.
Possible characters: a-z, A-Z, a-9, _.
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Secondary Value: Configures the nominal value of the secondary of the CT/VT.
This configuration is only important when using the high accuracy
measurement board which can be used for 1 A or 5 A.
Ratio: Shows the CT/VT ratio according to the primary and secondary values
configured.
Compensation: Inserts a percentage value onto the DR60 reading of that
specific analog inputs. Possible characters: -100.0% to 100.0%.
 


   
For example:
Applied value: 100 V.
Read value: 99 V.
 


    
5.2.2 Generic Sensor (TGSN) – Transducer inputs
This subtab configures the transducer inputs. The signal of the transducer (±10 V or 0-20 mA) is converted in to the desired physical measurement using a first order transfer function with the parameters of Scale Factor
() and offset () defined by the user:
 󰇛  
󰇜
where is the converted value and is the value read by the DC channel in Volts or
Amps. The screen allows the user to configure for each channel: a name, the Scale Factor A, the Offset B and the Unit of the measurement that the transducer represents.
5.3 Binary
This configuration tab contains the parameters to configure the physical binary inputs, enable/disable GOOSE inputs and set their name tags.
5.3.1 Binary Inputs Subtab
The following aspects related to the physical binary inputs are configured on this subtab:
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Level: Selects the voltage level of the binary inputs. There are two options
available: 24/48Vdc and 125/250Vdc. The operating changes of each level is
shown in the Technical Specification Chapter. Applying voltage signals
incompatible to the Level configuration may damage the inputs.
GGIO_DIGITAL: Shows the index reference of each binary input (Ind1…Indn). Name: Configures the name tags of each binary input. Maximum characters:
12. Possible characters: a-z, A-Z, a-9, _.
Debouncing Time: The DR60 will only start a record once the binary activation
time (i.e. duration of the HIGH signal for the normal polatiry channels) has
exceeded the debouncing time parameter.
Polarity: chooses the polarity of each input.
- Normal: LOW signals are interpreted as LOW signals and HIGH signals are
interpreted as HIGH signals.
- Inverted: HIGH signals are interpreted as LOW signals and LOW signals are
interpreted as HIGH signals.
Choose the voltage level of the binary inputs accordingly to the voltage levels applied to them. Choosing 24/48V voltage level and applying higher voltage levels can damage the inputs.
The binary inputs acquisition rate is the same as the configured for the waveform recorder. Then the waveform recorder is not enabled the binary inputs acquisition rate is 256 samples/cycle.
5.3.2 GOOSE Inputs
This subtab allows enabling/disabling and entering a name tag for each GOOSE input. The DR60 can handle up to 256 GOOSE inputs to record, cross-trigger and trigger recorders. The following parameters are available for configuration:
GGIO_GOOSE: Enables or disables the corresponding GOOSE input. Name: Configures the name tags of each binary input. Maximum characters:
12. Possible characters: a-z, A-Z, a-9, _.
5.4 Communication
This configuration tab contains all the configuration related to communication to other devices, such as: Ethernet and serial ports, PMU streams, GOOSE and Report control blocks, GOOSE subscriber and DNP3 transmission.
5.4.1 Physical
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The configuration of the physical communication ports is carried out though this subtab.
Each Ethernet port, 1 and 2, have different addresses and it is possible to configure for each of them:
IP Address Network Mask Gateway
The Ethernet ports are used to:
Port
Usage
Ethernet 1
Configuration, monitoring, GOOSE publication/subscription, MMS report control block publication, firmware upgrade, log and registers download.
Ethernet 2
Configuration, monitoring, firmware upgrade, log and registers download.
The default settings are:
Default Setting
Parameter
Ethernet port 1
Ethernet port 2
IP Address
192.168.0.199
192.168.1.199
Network mask
255.255.255.0
255.255.255.0
Gateway
192.168.0.254
192.168.1.254
For the serial ports A (RS232) and B (RS232), the following parameters are
configurable:
Speed Data Bits Parity Stop Bits
5.4.2 Datasets
The Dataset section is used to create a dataset for GOOSE or Report publishing. The configurable parameters are described below:
Datasets buttons:
<New>: this buttons creates a new dataset. Clicking on this button, the dataset
parameters will appear for editing.
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<Edit>: this button edits a selected pre-existing dataset. Clicking on this
button, the dataset parameters will appear for editing.
<Delete>: this button deletes a selected pre-existing dataset. The DigInput1
dataset cannot be deleted.
Functional Constraint: selects the functional constraint that indicates the possible
operating services of a specific DataAttribute. The functional constraints are:
ST: Status Information; MX: Measurements; CO: Control; SP: Setting Point; SG: Setting Group; SE: Setting Group Editable SV: Substitution CF: Configuration DC: Description EX: Extended Definition
Dataset Name: inserts a name for the new dataset. Maximum characters: 32.
Possible characters: a-z, A-Z, a-9, _.
Description: inserts a description for the new dataset. Maximum characters: 64.
Possible characters: except “<” and “>”.
Filter: enables the user to filter the global dataset by DataAttribute names.
Note:
When selecting the data for the dataset, the IEC 61850 name for binary inputs is DIGITALGGIO and the binary outputs as OUTPUTGGIO.
5.4.3 GOOSE Publisher
To publish GOOSE messages grouped in datasets, it is necessary to create a GOOSE Control Block (GCB). In the GOOSE Publisher subtab it is possible to create and edit GOOSE Control Blocks for the GOOSE messages transmission. Each GCB is associated with one Dataset and the DR60 is able to send up to 16 GCB. The configurable parameters are described below:
GOOSE Control Block Identification
Message Name: inserts a name for the GOOSE Control Block. The allowed
characters are 0-9, a-z, A-Z and ‘_’. Maximum characters: 32.
Description: inserts a description for the GOOSE Control Block. The not
allowed characters are ‘<’ and ‘>’. Maximum characters: 64.
GOOSE ID: inserts an identification for the GOOSE Control Block. The allowed
characters are 0-9, a-z, A-Z and ‘_’. Maximum characters: 129.
Dataset: selects the dataset for this GOOSE Control Block. In this field will
appear all created datasets.
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Network Settings
APP ID: inserts an indication of the message identifier. The identifier must
contain four hexadecimal characters. Characters range 0x0 – 0x3FFF.
MAC-Address: inserts an indication of the MAC address of the originator to be
filtered. The address must be represented as six groups of hexadecimal
characters. The allowed characters are 0-9, a-f, A-F and ‘-‘.’. IEC 61850-8-1
standard recommends the MAC address for GOOSE messages creation as
following:
The first three bytes are 01-0C-CD;
The fourth byte must be 01 for GOOSE;
Thus, the MAC address must be from 01-0C-CD-01-00-00 to 01-0C-CD-01-
01-FF.
VLAN-PRIORITY: selects the VLAN priority. Such priority must be a numeric value
between 0 and 7.
VLAN-ID: inserts the VLAN unique identification. Characters range 0x0 – 0xFFF. Minimum Time: inserts the maximum delay time allowed for message
transmission, after the change of the state. The range is from 1 ms to 60000 ms.
Maximum Time: inserts the source supervision time. If there is none change of
state, a message is transmitted in this time. The range is from 4 ms to 60000 ms.
5.4.4 GOOSE Subscriber
The DR60 has 256 virtual GOOSE inputs that can be associated with GOOSE Booleans values. The configurable parameters are described below:
To associate a GOOSE Control Block with a digital input, do the following:
1 Load the SCL file from the IED sending the messages clicking “Add SCL File”. 2 On the right side, select the GOOSE Boolean that the DR60 shall subscribe to, on the
right side select the GOOSE input that will be associated with that GOOSE boolean. Only the GOOSE inputs enabled in the Binary configuration tab will be displayed.
3 Click the “>>” button to perform the association and “<<” to undo it.
5.4.5 Reports
This screen allows the user to configure the MMS Report Control Blocks (RCB). The Report Control Block sends internal variables grouped on a datasheet to the supervisory system. Each RCB is associated to one Dataset and the DR60 is able to send up to 15 buffered or unbuffered Report Control Blocks. The configurable parameters are described below:
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Report Control Block Identification and data
Message Name: inserts a name for the GOOSE Control Block. The allowed
characters are 0-9, a-z, A-Z and ‘_’. Max characters: 32.
Description: inserts a description for the GOOSE Control Block. The not
allowed characters are ‘<’ and ‘>’. Max characters: 64.
Report ID: Optional RCB identifier. The allowed characters are 0-9, a-z, A-Z and
‘_’. Max characters: 74.
Dataset: selects the dataset for this Report Control Block. All the created
datasets will be listed here. Options
Buffered: internal events (caused by trigger options data-change, quality-
change, and data-update) issue immediate sending of reports or buffer the
events (to some practical limit) for transmission, such that values of data
object are not lost due to transport flow control constraints or loss of
connection.
Buffered Time: specifies the time interval in milliseconds for the buffering of
internal notifications caused by data-change (dchg), quality-change (qchg),
dataupdate (dupd) by the BRCB for inclusion into a single report.
Upon receipt of the first set of internal notification of events of the referenced
data-set, the BRCB starts a timer of the duration buffer time. When the timer
expires, the BRCB combines all internal notifications that have been received
during the time interval into a single report. The next internal notification
following the timer expiration signals the new start of that timer. Range: 1 –
1000 ms. Step 1 ms;
Indexed: When checked the report control block instance names are created
from the RCB name, followed by an index number from 01 up to maximum 15.
Max Instances: To allow multiple clients to receive the same values of data
object, multiple instances of the report control classes shall be made available.
Once a report control block is reserved, by a specific client, no other client
shall have access rights to set the control block attributes. Up to 16 instances
can be configured.
Trigger Options: Specifies the trigger conditions which will be monitored by this BRCB. The following values are defined:
Data Change(dchg); relates to a change in a value of a DataAttribute
representing the process-related value of the data object
Quality Change(qchg); relates to a change in the quality value of a
DataAttribute.
Data Update (dupd): relates to a freeze event in a value of a DataAttribute
representing a freeze value of the data object (for example, frozen counters)
or to an event triggered by updating the value of a DataAttribute. Data-update
trigger condition may be used to issue sending a report or storing a log entry
into a log when a value of a DataAttribute has updated. Updating may mean
that the value has changed or has been “overwritten” with the same value as
before. The dupd trigger condition can be used as a trigger for statistics values
that may be calculated and updated on a periodic base. Independently of
whether the statistics value has changed or not, the value will be reported or
logged.
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General Interrogation: After a request for General Interrogation the BRCB
starts the interrogation process and create a report that includes all
DataAttribute values of the referenced dataset.
Integrity: When integrity reports are enabled, the BRCB shall be notified each
time the value of the time as specified in Integrity Period has expired. The
BRCB then builds a report with the values of all members of the referenced
data-set. Range: 1 – 1000 ms. Step 1 ms.
Note: The general-interrogation is initiated by the client. The integrity report, which also transmits all values of a data set, is initiated by the BRCB.
Optional Fields:
Sequence Number: Includes the SqNum in the report. The attribute SqNum
specifies the sequence number for each BRCB that has report enable set to
TRUE. This number is incremented by the BRCB for each report generated and
sent.
Dataset: Includes DatSets in the report Data Reference: Includes the DataRef in the report Buffer Overflow: Includes the BufOvfls in the report. The parameter BufOvfl
indicates to the client that entries within the buffer may have been lost.
Time Stamp: Includes the time stamp in the report. Reason Code: Includes the Reason Codes in the report, which means the
reason that generated the report according to Trigger Options
Entry ID: Includes EntryID in the report. Configuration Revision: Includes the ConfRev in the report. The attribute
ConfRevshall represent a count of the number of times that the configuration
of the data-set referenced by DatSet has been changed.
Note: RMS values and frequency values are calculated and made available for MMS communication every ¼ cycle.
5.4.6 C37.118.2-2011 (PMU)
This tab allows the configuration of the communication parameters of the PMU streams. For each of the 4 separate streams the following configuration is available:
Enable: Enables the transmission of the respective frame ID: PMU ID according to C37.118-2011. The PMU ID code is set to uniquely
associate the synchrophasor values to the PMU responsible for producing
them. The ID ranges from 1 to 65534.
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Dataset: Associates the PMU stream with a PMU dataset. The PMU dataset is
created automatically when the PMU is activated for a circuit in the Analog
configuration tab and it can be edited in the Communication>Dataset tab.
Frame Rate: Selects the frame rate for the respective stream. 60 fps at 60 Hz
and 50 fps at 50 Hz are available.
Communication Mode: Configures the communication or operation mode of
the stream. The configurations available are: Commanded, Spontaneous
Unicast or Spontaneous Multicast.
Protocol: Choses between the UDP/IP or TCP/IP transmission protocols. Source Port: Chooses the source port of the respective stream. Each stream
needs to have an exclusive port number. Multiple streams cannot be sent with
the same port number.
Destinations Address: Configure the destination IP address and port number
for the spontaneous transmissions.
Output Interface: In case the destination address is not in the same submask
as one of the ethernet ports, the streams will be sent through the Ethertnet 1
interface
5.4.7 DNP3
The DR60 provides DNP3 implementation level 2 for outstation equipment via both Ethernet or serial communication. This tab allows the configuration of the communication parameters of the DNP3 streams. The following configuration parameters are available:
Enabled: Turn on or off the DNP3 streaming. DNP3 Communication: Selects the physical interfaces that will send DNP3.
Ethernet, Serial port 1 or serial port 2.
Master IP Address: IP address of the equipment reading the DNP3. Outstation Address: DNP3 address of the DR60 being configured. Range 0 to
65534.
Outstation port: Port number for the DR60 being configured. 20000 is the
default and the port number registered for DNP3 use with the IANA (Internet
Assigned Numbers Authority).
Application Timeout: The timeout for an application layer confirmation in
seconds. Range 0,01 to 40 s.
Link Layer Timeout: The timeout for a data link layer confirmation in seconds.
Range 0,01 to 40 s.
Enable Unsolicited Reporting:
Server address to report to: DNP3 address of the server
(master)show
Class 1, 2, 3
Max Delay: Maximum time the outstation waits until sending the
data pertaining to each class in case no data state change or DNP3 threshold is exceeded.
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Max Events: Maximum number of events that can be buffered for
each class. Range 1 to 200.
Mask: Enables the transmission of the respective DNP3 class.
Object Variation
Defines the variation of the respective object to be reported when the master
does not request any specific type.
Object 1 – Binary Inputs - Options: 1 – With status; 2 – Without status Object 2 – Binary Input Event - Options: 1 – Without timestamp; 2 – With
timestamp; 3 – With relative timestamp
Object 30 – Analog Input - Options: 1 – (32) Integer; 2 – (16) Integer; 3 - (32)
Integer without flag; 4 - (16) Integer without flag
Object 32 – Analog Input Event - Options: 1 – (32) Integer without timestamp;
2 – (16) Integer without timestamp; 3 - (32) Integer with timestamp; 4 - (16)
Integer with timestamp
Input Selection
Binary Analog
Scale: Scale factor that multiplies the analog measurement Deadband: An event is triggered when the Analog input changes an
amount greater than the deadband value. A Deadband of zero permits any change in the analog input value to generate an event, and a Deadband of full range of the variable prevents generation of an event
Note: Only float measurement marked with the suffix .f|MX are able to be transmitted via DNP3.
5.5 Synchronization
5.5.1 Synchronization
The DR60 supports time synchronization with PTP IEEE1588v2 and demodulated IRIGB-
004. It is also possible to configure the DR60 to work with no time sync, just with the internal clock.
The following parameters are found on this configuration sab: Time source:
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IRIGB: sets the DR60 to be synchronized with IRIGB. No further configuration is
necessary.
PTP: sets the DR60 to be synchronized with PTPv2. The PTP configuration presents
the following parameters:
5.5.2 PTP Configuration
The PTPv2 synchronization source presents the following parameters:
Holdover Time: Period during which the DR60 can maintain the
synchronization quality without an external sync reference, thanks to drift of
the internal clock. Range: 5 – 60s.
Network Interface: Choses the Ethernet port used for the PTP sync. Profile: Choses between the PTP profiles: Power IEEE C37.238/2011, P2P
default and Custom.
Domain Number: A PTP domain is a collection of one or more PTP subdomains.
A subdomain is a logical grouping of 1588 clocks that synchronize to each
other using the PTP protocol, but that are not necessarily synchronized to PTP
clocks in another PTP subdomain. Subdomains provide a way of implementing
disjoint sets of clocks, sharing a common network, but maintaining
independent synchronization within each set. The domain number can be set
as 0, 1, 2 or 3.
Network Protocol: allows the user to choose between the UDP protocol and
Ethernet layer 2.
VLAN ID and Priority: Define VLAN parameters according to IEEE 802.1Q. Operation Mode: Two options are available:
Two-step: In two-step-mode the master sends a synchronization
message – SYNC message – with an estimated value of the time cyclically to the connected slaves. Parallel to this, the time at which the message leaves the sender is measured as precisely as possible. The master then sends this actual exact transmission time of the corresponding sync message to the slaves in a second message ­follow-up message. These also measure the reception time of these messages as exactly as possible and can correct the correction value (offset) to the master from it. The slave clock is then corrected by this offset. If the transmission line were to have no delay, both clocks would be synchronized.
One-step: The master sends a synchronization message – SYNC –
message with the precise value of the time cyclically to the connected slave. Other than in two-step-mode, the precise time is inserted into the SYNC message “on-the-fly” by the hardware. No FOLLOWUP – messages are needed in this mode. The calculation of the offset is the same as in two-step-mode..
Delay Mechanism: Two delay mechanism are defined:
End-to-end: Only measures the time taken for a PTP event message
to transit the bridge and provide this information to the receiving
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clocks in the correction field of the PTP message. In this mode the propagation delay of the link connected to the port is not corrected
Peer-to-peer: Use the peer delay mechanism for the delay
measurement. In addition to providing PTP event transit time information, also provides corrections for the propagation delay of the link connected to the port receiving the PTP event message The peer delay mechanism measures the port to port propagation delay time between two directly connected ports sharing the same communication technology.
Grandmaster Priority: Is an administratively assigned precedence hint used by
the Best Master Clock algorithm (BMC) to help select a grandmaster for the
PTP domain. The range is from 0 to 255.
Announce Receipt Timeout: configures the interval between PTP announce
messages on an interface or the number of PTP intervals before a timeout
occurs on an interface.
When configuring PTP, the first point is to select which PTP profile, or which common parameters, will be used along with all PTP devices. The DR60 has three options to be selected as profile:
Power Profile – IEEE C37.238/2011: this profile has some fixed parameters defined
by the standard and some configurable parameters defined by the user.
The configurable parameters for Power Profile are:
Domain number; VLAN ID and Priority;
The fixed parameters are:
Network Protocol: Ethernet Level 2; Operation Mode: One step; Delay Mechanism: Peer-to-peer; Grandmaster Priority: #1 255; #2 255; Announce Receipt Timeout: 3
The CUSTOM profile has all its parameters opened for user configuration.
The P2P Default profile is partially configurable. The fixed parameters are are:
Domain number: 0; Grandmaster Priority: #1 128; #2 128 Configurable parameters are: Domain number: Operation mode: Delay Mechanism: GRANDMASTER PRIORITY: Announce Receipt Timeout:
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Internal clock: sets the DR60 to work with no external source of sync. The internal
clock configuration is carried out through the web interface described in the Monitoring Web Interface section.
5.5.3 Ethernet Network Synchronism Recommendations
In order to obtain the best synchronism performance in an Ethernet network, the following configuration is recommended.
PTP Power Profile (IEEE C37.238); o Delay mechanism: Peer-to-Peer ( P2P)
This means that ALL equipment (Switches, GPS clocks, DR60s, Relays, Bay
Controllers, and so on) must be PTP-aware.
o Mapped as Ethernet ( Layer 2 – L2) messages
This means that ALL equipment (Switches, DR60s, Relays, Bay Controllers, and so
on) must be PTP-aware.
o One-step (preferred) or Two-step operation
Time is stamped preferentially at hardware.
Max number of hops: 16
Max error introduced by hop: 50ns
Max error in slave: 1us
Multicast filtering or VLAN segregation shall be configured in the managed switches,
otherwise the DR60 might present instable and undesirable behavior in its applications and synchronism.
5.6 Recording
This configuration tab options to enables/disables the waveform, disturbance, continuous disturbance and SOE recorder and their parameters.
The following configuration parameters are available:
Waveform recorder: Enables/disables the recorder.
Pre trigger time: configures the recording time duration before the waveform
recorder trigger.
Post trigger time: configures the recording time duration after threshold is
desensitized.
Maximum time: configures the maximum time of the record. Disable for: disables temporarily the recorder if various triggers repeat within
a period of time.
Sample rate: selects the sampling rate of the recorder (256 or 512 s/c). Retrigger: Enables and disables the retrigger. Refer to Records Chapter for
information on retrigger functioning.
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Periodic Trigger: Allows configuring the recorder to trigger at preset periodic
intervals
Disturbance recorder: Enables/disables the recorder.
Pre trigger time: configures the recording time duration before the
disturbance recorder trigger.
Post trigger time: configures the recording time duration after threshold is
desensitized.
Maximum time: configures the maximum time of the record. Disable for: disables temporarily the recorder if various triggers repeat within
a period of time.
Sample rate: selects the sampling rate of the recorder (1, 2 or 4 s/c). Select Measures: selects which measurement values will be recorded. Up to
128 measurements can be recorded. The full list of measurements is found in Chapter Records.
Retrigger: Enables and disables the retrigger. Refer to Records Chapter for
information on retrigger functioning.
Periodic Trigger: Allows configuring the recorder to trigger at preset periodic
intervals
The ranges and steps for the pre, post and maximum times configuration are shown in the Records Chapter.
Continuous Disturbance Recorder: Enables/disables the recorder.
Aggregation Period: Configures the duration of each record. A new record will
be created every time the aggregation period elapses. Range: 10.0 to 60.0 minutes.
Sample rate: selects the sampling rate of the recorder (1, 2 or 4 s/c). Select Measures: selects which measurement values will be recorded. Up to
128 measurements can be recorded. The full list of measurements is found in Chapter Records.
Trend Recorder
Calculation Period: Period of time used for maximum, minimum and average
calculation. Range: 1, 5, 10, 15, 20, 30 and 60 min.
Aggregation Period: Duration of the record. Range 1 to 24 h. Select Measures: Selection of the measurement to be recorded.
SOE Recorder: Enables/disables the recorder.
Aggregation Period: Configures the duration of each record. A new record will
be created every time the aggregation period elapses. Range: 1 to 1440 minutes.
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5.7 Triggering
The Triggering configuration tab allows the configuration of the parameters used as thresholds to trigger the waveform and disturbance recorders.
5.7.1 Thresholds
This screen allows the configuration of thresholds associated with measured and calculated values (from the analog channels) that once exceeded can cause the DR60 recorders trigger.
Following parameters can be set for each defined threshold:
Parameters set for each defined threshold
Parameter
Range
Step
Hysteresis
0 … 20 %
0.1 %
Hold time
0 … 1000 ms
1 ms
The thresholds are displayed side by side to easy and quick configuration. Upper and lower thresholds are represented by the following signs:
Threshold
Sign
Example
Upper (Over)
Over Frequency – F (Hz)
Lower (Under)
Under Frequency – F (Hz)
Blank threshold will not be processed and will not trigger the recorder.
Below is the list of all possible thresholds:
Basic Measures
Description
Type
V1
(PU)
Positive sequence voltage
and
Fundamental
Measures
Description
Type
P3θ
(MW)
Total active power
and
Q3θ
(MVAr)
Total reactive power
and
S3θ
(MVA)
Total apparent power
and
F
(Hz)
Frequency
and
VP
(PU)
Phase voltages RMS
and
VN
(PU)
Neutral voltages RMS
and
IP
(kA)
Phase currents RMS
and
IN
(kA)
Neutral currents RMS
and
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V2
(PU)
Negative sequence voltage
and
V0
(PU)
Zero sequence voltage
and
I1
(kA)
Positive sequence current
and
I2
(kA)
Negative sequence current
and
I0
(kA)
Zero sequence current
and
THDVP
(%)
Phase voltage total harmonic distortion
and
THDVN
(%)
Neutral voltage total harmonic distortion
and
THDIP
(%)
Phase current total harmonic distortion
and
TDHIN
(%)
Neutral current total harmonic distortion
and
Derivative Measures
Description
Type
P3θ
(MW/s)
Total active power
Q3θ
(MVAr/s)
Total reactive power
S3θ
(MVA/s)
Total apparent power
F
(Hz/s)
Frequency
VP
(PU/s)
Phase voltages RMS
VN
(PU/s)
Neutral voltages RMS
IP
(kA/s)
Phase currents RMS
IN
(kA/s)
Neutral currents RMS
Single-phase
Measures
Description
Type
F
(Hz)
Frequency
and
V
(PU)
Voltage
and
I
(kA)
Current
and
P
(MW)
Active Power
and
Q
(MVAr)
Reactive Power
and
S
(MVA)
Apparent Power
and
PF Power Factor
and
THDV
(%)
Voltage Total Harmonic Distortion
and
THDI
(%)
Current Total Harmonic Distortion
and
Single-phase
Measures (Derivative)
Description
Type
F
(Hz/s)
Frequency
V
(PU/s)
Voltage
I
(kA/s)
Current
P
(MW)
Active Power
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Q
(MVAr)
Reactive Power
S
(MVA)
Apparent Power
PF/s Power Factor
THDV
(%/s)
Voltage Total Harmonic Distortion
THDI
(%/s)
Current Total Harmonic Distortion
Other Measures
Description
Type
PF
AVG
Average Power Factor
and
VAB
(PU)
Phase-to-phase Voltage AB
and
VBC
(PU)
Phase-to-phase Voltage BC
and
VCA
(PU)
Phase-to-phase Voltage CA
and
PP
(MW)
Phase Active Power
and
PN
(MW)
Neutral Active Power
and
QP
(MVAr)
Phase Reactive Power
and
QN
(MVAr)
Neutral Reactive Power
and
SP
(MVA)
Phase Apparent Power
and
SN
(MVA)
Neutral Apparent Power
and
PFP Phase Power Factor
and
PFN Neutral Power Factor
and
VPP
(PU)
Phase Voltages Phasor
and
VPN
(PU)
Neutral Voltages Phasor
and
IPP
(kA)
Phase Currents Phasor
and
IPN
(kA)
Neutral Currents Phasor
and
Note: The derivative thresholds are calculated within a windows of 1 cycle.
Description of the Threshold subtab shown in the figure below.
A To add a new Threshold, click the + sign on the left side of the screen. B To remove a threshold line, select the line by clicking any of the parameters of the
corresponding circuit and then hit Delete on the computer keyboard. Figure below shows the two point above mentioned.
A
B
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5.7.2 Equations
This subtab allows the configuration of logic equation using thresholds, binary inputs, GOOSE inputs and other equations as operands. The list below shows the logic operator and their syntax:
NOT: Not (operand) RISE: Rise (operand) FALL: Fall (operand) AND: operand AND operand OR: operand OR operand XOR: operand XOR operand LATCH (SET/RESET): Latch (set operand, reset operand)
5.7.3 Matrix
The matrix is used to assign which signals will close the binary outputs and trigger the waveform and/or disturbance recorder. Thresholds, binary inputs, GOOSE inputs and equations can be configured to close the binary outputs and trigger the waveform and disturbance recorders. To associate the variables (thresholds, binary inputs, GOOSE inputs and equations) with the triggers of binary outputs, double click the cell that insects the variable row with the binary output or trigger. Clicking the clock sign next to the binary outputs number allows the configuration of pickup and drop-off timer for the respect binary output operation. Within the timer setting, the parameter Timer Value (ON) means that the signal causing the respective output to close needs to stay ON during, at least, the time configured. The parameter Timer Value (OFF), correspondingly, means that the signal causing the respective output to close needs to stay OFF during, at least, the time configured. The diagram below exemplifies the functioning of the timers.
Timer Value (ON) diagram
Input signal
Output signal
Timer Value (ON)
Time
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Timer Value (OFF) diagram
Binary Inputs can trigger the recorders using the following types of binary signal transitions:
Fall - "High" to "Low" transition (also called falling edge) Rise - "Low" to "High" transition (also called rising edge) Both - "Low" to "High" and "High" to "Low" transitions Direct - “Low” to “High” level transition
6 Monitoring and Web Interface
The DR60 has a web interface with monitoring options. To access the web interface type in the DR60 IP Address using the Mozilla Firefox or Google Chrome browser from computers, cellphones or tablet. The default IP Addresses are shown in the Communication Chapter. In case the default IP address has been changed and the user cannot recall it, use the IP Scanning tool in the DR60 Configurator communication menu in order to recover it refer to section (IP Address Scanning in the Configuration Chapter. The DR60 web interface allows the user to:
Monitor real time calculated and measured values Verify device information as serial number, CORTEC and others Verify the device status Check information on recorders and the created COMTRADE files. The table
below shows the available data to monitor on this page.
Start a manual trigger Change de internal clock time
The DR60 also have a MMS server that can be access by IEC 61850 MMS clients to monitor its internal variables, such as: binary I/O status, measurements, alarms etc. The DR60 can support up to 20 MMS clients. The web interface connects as a MMS client (counting as 1 clients per web interface).
Records page data:
Input signal
Output signal
Timer Value (OFF)
Time
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Item
Description
Recorder status
Shows if the respective recorder is enabled or disabled
Recording made
Shows that a trigger was generated*
Fault number
Shows how many triggers were generated**
Memory used
Shows the percentage usage of the respective recorder
Pre-trigger time
Shows the pre-trigger time configured
Post-trigger time
Shows the post-trigger time configured
Maximum record time
Shows the maximum recorder time configured
Retrigger enabled
Shows if the retrigger is enabled or disabled
Sample rate
Shows the configured sampling rate for the respective recorder
Inhibition time
Shows the duration that the trigger generation will be disabled***
Inhibition count
Shows how many consecutive triggers within the inhibition time window are needed to enable the trigger inhibition***
Inhibition window
Shows the time that is needed to enable the trigger inhibition***
*This information is 1 when record is generated and 0 during the record generation.
**The counter restarts when the equipment reboots or a new configuration is sent.
***Parameter configured in configuration tab Recording> Disable for.
7 Alarm and Warning Reporting
The DR60 can report alarm/warning using the dry contact normally closed relay or via communication protocols (MMS and GOOSE).
The alarm events, in addition to the protocol transmission, will also operate the IN SERVICE normally closed dry contact relay. Warning events can only be sent via protocol. The table also presents the IEC 61850 data name/address to be used when creating a dataset for these alarms/warnings.
Alarms
Data Name
Description
Sync NOT OK
BSE/ALARMSGGIO1.ST.Alm1
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Card not detected, invalid or incompatible
BSE/ALARMSGGIO1.ST.Alm2
Happens when there are discrepancies between the installed boards and the device CORTEC
Internal voltage
BSE/ALARMSGGIO1.ST.Alm3
Internal voltage automonitoring alarm
Internal temperature
BSE/ALARMSGGIO1.ST.Alm4
Internal temperature is abnormal (Out of -10°C to 60ºC)
No communication Ethernet interface 1
BSE/ALARMSGGIO1.ST.Alm5
Loss of communication with ethernet interface 1
Waveform/Fault recorder memory usage above 98%
BSE/ALARMSGGIO1.ST.Alm6
Happens when the memory becomes 98% full for waveform recorder
Disturbance recorder memory usage above 98%
BSE/ALARMSGGIO1.ST.Alm7
Happens when the memory becomes 98% full for disturbance recorder
Trend recorder memory usage above 98%
BSE/ALARMSGGIO1.ST.Alm8
Records memory exceeds 98% for trend recorder
SOE recorder memory usage above 98%
BSE/ALARMSGGIO1.ST.Alm9
Records memory exceeds 98% for SOE recorder
GOOSE subscriber failure or timeout
BSE/ALARMSGGIO1.ST.Alm10
Time for the next expected GOOSE message to come exceeded
Warnings
Data Name
Description
Sync OK
BSE/ALARMSGGIO1.ST.Wrn1
Equipment not sync
No communication Ethernet interface 2
BSE/ALARMSGGIO1.ST.Wrn5
Loss of communication with ethernet interface 2
Waveform/Fault recorder memory usage above 90%
BSE/ALARMSGGIO1.ST.Wrn6
Happens when the memory becomes 90% full for waveform recorder
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Disturbance recorder memory usage above 90%
BSE/ALARMSGGIO1.ST.Wrn7
Happens when the memory becomes 90% full for disturbance recorder
Trend recorder memory usage above 90%
BSE/ALARMSGGIO1.ST.Wrn8
Records memory exceeds 90% for trend recorder
SOE recorder memory usage above 90%
BSE/ALARMSGGIO1.ST.Wrn9
Records memory exceeds 90% for SOE recorder
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DR60
Digital Recorder
Chapter 5: Records
This chapter details all types of registers created by the DR60.
1 Wave Form Records
The waveform recorder registers the actual voltage or current signal being applied to the analog channels. It captures the instantaneous values of the signal at a configurable sampling rate of 256 or 512 samples/cycle. The condition that initiated the waveform recording is called trigger. A trigger happens
whenever there’s a violation of digital (binary or GOOSE inputs) or analog thresholds.
Other ways to create waveform records are by cross-trigger signal coming from another recorder or by a manual trigger.
1.1 Recorded Values
The following values are recorded by the waveform recorder:
Voltage waveform of all voltage circuits (A, B, C, and N);
Current waveform of all current circuits (A, B, C, and N);
Transducer waveform of all transducer channels;
Binary Inputs
Binary Outputs
GOOSE Inputs
1.2 Recording Times by Trigger
The following durations are configurable in the waveform recorder:
Parameter
Range at 256 ppc
Range at 512 ppc
Increment
Pre-fault time
0.0 … 30.0 s
0.0 … 15.0
0.1 s
Post-fault time
0.0 … 30.0 s
0.0 … 15.0
0.1 s
Maximum Record time
1.0 60.0 s
1.0 … 30.0
0.1 s
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The Maximum Record time configures the maximum duration that the register can reach. If consecutive retriggers or a sustained fault happens, the Maximum Record time establishes the limit of time that the COMTRADE file will register. The maximum duration of the fault record is 30 seconds.
1.3 Sampling Rate
The wave recorder sampling rate is user-selectable between 256 and 512 samples/cycle. The size of the records is proportionally affected. Both analog and digital inputs are recorded at the same sampling rate depending on the type of recorder, i.e. waveform fault records: 256 and 512 samples/cycle and Disturbance and continuous disturbance recorder: 1, 4 or 4 samples/cycle.
1.4 Trigger Burst Limiter
There is a user-configurable trigger burst limiter for the waveform recorder. The burst limiter is based on the number of triggers time interval (both parameters are user-configurable). When the limit is exceeded, recording will be disabled for a period of time defined by the user. This configuration aims to prevent excessive processing demand from jeopardizing the device functioning.
Parameter
Allowed values
Increment
Number of triggers
1 … 16
1
Time interval
1 … 60 s
1 s
Disabling time
1 … 30 min
1 min
2 Re-trigger and Record Concatenation
In case a consecutive event takes place and triggers the recorder within 1 second after the post-fault time of the prior event, then the DR60 concatenates both records and stores it in a single COMTRADE file. In the figure below, the second trigger happens within the 1 second time window, which makes the DR60 combine both events in a single file. The re-trigger can be enabled or disabled via configuration software.
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3 Disturbance and Continuous Disturbance Records
The disturbance recorder registers calculated values derived from the current and voltage signal being applied to the analog channels. Disturbance records are divided into two types depending on how the register recording is initiated:
Continuously:
Derived measurements are continuously recorded. A new record is created at each hour rollover. The record size depends on the number of derived measurements selected by the user. The record can contain up to 128 measurements. The continuous disturbance recorder has a parameter called Aggregation Period (10,0 – 60,0 min, 0,1 step). The recorder will create a new record every time the Aggregation Period has elapsed.
By trigger:
The disturbance recorder can be triggered by a Boolean equation, by a cross-trigger signal of another recorder, by a manual trigger using the Web Interface, or by the triggering of the fault recorder. It is possible to select the derived quantity of triggered disturbance records. If the quantities are not manually selected, the record will consist of all the quantities available for measurement. The record size depends of the number of derived measurements selected by the user. Continuous and triggered disturbance records share the same mass storage area.
3.1 Recorded Values
The table below presents all the available measurements from where the disturbance register can record up to 128. Some measurements are divided into 3 different types for easy configuration. The intention is to divide the measurements into classes of “importance” and they are: Fundamental, Basic and Other measurements:
Measurement
IEC 61850 Reference
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Type
MMXU
Fundamental
Total active power
MET/MMXU.TotW.mag.f
Fundamental
Total reactive power
MET/MMXU.TotVAr.mag.f
Fundamental
Total apparent power
MET/MMXU.TotVA.mag.f Others
Average power factor
MET/MMXU.TotPF.mag.f
Fundamental
Frequency
MET/MMXU.Hz.mag.f Others
AB Line voltage (magnitude)
MET/MMXU.PPV.phsAB.cVal.mag.f
Others
BC Line voltage (magnitude)
MET/MMXU.PPV.phsBC.cVal.mag.f
Others
CA Line voltage (magnitude)
MET/MMXU.PPV.phsCA.cVal.mag.f
Fundamental
A Voltage (RMS)
MET/MMXU.PhV.phsA.cVal.mag.f
Fundamental
B Voltage (RMS)
MET/MMXU.PhV.phsB.cVal.mag.f
Fundamental
C Voltage (RMS)
MET/MMXU.PhV.phsC.cVal.mag.f
Fundamental
A Current (RMS)
MET/MMXU.A.phsA.cVal.mag.f
Fundamental
B Current (RMS)
MET/MMXU.A.phsB.cVal.mag.f
Fundamental
C Current (RMS)
MET/MMXU.A.phsC.cVal.mag.f
Others
A Phase active power
MET/MMXU.W.phsA.cVal.mag.f
Others
B Phase active power
MET/MMXU.W.phsB.cVal.mag.f
Others
C Phase active power
MET/MMXU.W.phsC.cVal.mag.f
Others
A Phase reactive power
MET/MMXU.VAr.phsA.cVal.mag.f
Others
B Phase reactive power
MET/MMXU.VAr.phsB.cVal.mag.f
Others
C Phase reactive power
MET/MMXU.VAr.phsC.cVal.mag.f
Others
A Phase apparent power
MET/MMXU.VA.phsA.cVal.mag.f
Others
B Phase apparent power
MET/MMXU.VA.phsB.cVal.mag.f
Others
C Phase apparent power
MET/MMXU.VA.phsC.cVal.mag.f
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Others
A Phase power factor
MET/MMXU.PF.phsA.cVal.mag.f
Others
B Phase power factor
MET/MMXU.PF.phsB.cVal.mag.f
Others
C Phase power factor
MET/MMXU.PF.phsC.cVal.mag.f Others
A Current Phasor (magnitude)
MET/MMXU.A.phsA.instCVal.mag.f
Others
B Current Phasor (magnitude)
MET/MMXU.A.phsB.instCVal.mag.f
Others
C Current Phasor (magnitude)
MET/MMXU.A.phsC.instCVal.mag.f
Others
A Current Phasor (angle)
MET/MMXU.A.phsA.instCVal.ang.f
Others
B Current Phasor (angle)
MET/MMXU.A.phsB.instCVal.ang.f
Others
C Current Phasor (angle)
MET/MMXU.A.phsC.instCVal.ang.f
Others
A Voltage Phasor (magnitude)
MET/MMXU.PhV.phsA.instCVal.mag.f
Others
B Voltage Phasor (magnitude)
MET/MMXU.PhV.phsB.instCVal.mag.f
Others
C Voltage Phasor (magnitude)
MET/MMXU.PhV.phsC.instCVal.mag.f Others
A Voltage Phasor (angle)
MET/MMXU.PhV.phsA.instCVal.ang.f
Others
B Voltage Phasor (angle)
MET/MMXU.PhV.phsB.instCVal.ang.f
Others
C Voltage Phasor (angle)
MET/MMXU.PhV.phsC.instCVal.ang.f
MSQI
Basic
Current positive sequence (magnitude)
MET/MSQI.SeqA.c1.instCVal.mag.f
Basic
Current positive sequence (angle)
MET/MSQI.SeqA.c1.instCVal.ang.f
Basic
Current negative sequence (magnitude)
MET/MSQI.SeqA.c2.instCVal.mag.f
Basic
Current negative sequence (angle)
MET/MSQI.SeqA.c2.instCVal.ang.f
Basic
Current zero sequence (magnitude)
MET/MSQI.SeqA.c3.instCVal.mag.f
Basic
Current zero sequence (angle)
MET/MSQI.SeqA.c3.instCVal.ang.f
Basic
Voltage positive sequence (magnitude)
MET/MSQI.SeqV.c1.instCVal.mag.f Basic
Voltage positive sequence (angle)
MET/MSQI.SeqV.c1.instCVal.ang.f
Basic
Voltage negative sequence (magnitude)
MET/MSQI.SeqV.c2.instCVal.mag.f Basic
Voltage negative sequence (angle)
MET/MSQI.SeqV.c2.instCVal.ang.f
Basic
Voltage zero sequence (magnitude)
MET/MSQI.SeqV.c3.instCVal.mag.f
Basic
Voltage zero sequence (angle)
MET/MSQI.SeqV.c3.instCVal.ang.f
MHAI
Basic
Current total harmonic distortion
MET/MHAI.ThdA.phsA.cVal.mag.f
Basic
Current total harmonic distortion
MET/MHAI.ThdA.phsB.cVal.mag.f
Basic
Current total harmonic distortion
MET/MHAI.ThdA.phsC.cVal.mag.f
Basic
Voltage total harmonic distortion
MET/MHAI.ThdPhV.phsA.cVal.mag.f Basic
Voltage total harmonic distortion
MET/MHAI.ThdPhV.phsB.cVal.mag.f
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Basic
Voltage total harmonic distortion
MET/MHAI.ThdPhV.phsC.cVal.mag.f MMXN
Fundamental
Frequency
MET/MMXN.Hz.mag.f
Fundamental
Voltage (RMS)
MET/MMXN.Vol.mag.f
Fundamental
Current (RMS)
MET/MMXN.Amp.mag.f
Fundamental
Phase active power
MET/MMXN.Watt.mag.f
Fundamental
Phase reactive power
MET/MMXN.VolAmpr.mag.f
Fundamental
Phase apparent power
MET/MMXN.VolAmp.mag.f Others
Phase power factor
MET/MMXN.PwrFact.mag.f
MHAN
Basic
Current total harmonic distortion
MET/MHAN.ThdAmp.mag.f
Basic
Voltage total harmonic distortion
MET/MHAN.ThdVol.mag.f
TGSN
Transducer (magnitude)
MET/TGSN.GenSv.instMag.f
Digital inputs
GOOSE inputs
DIG/GOOSEGGIO1
Digital inputs
DIG/DIGITALGGIO1
Digital outputs
DIG/OUTPUTGGIO1
3.2 Recording Times by Trigger
Once triggered, the following parameters are considered by the disturbance recorder:
Parameter
Allowed values
Increment
Pre-fault time (

)
0 … 2 min
0.1 min
Post-fault time (

)
0 … 60 min
0.1 min
Maximum Record time (

)
1 … 60 min
0.1 min
The Maximum Record time configures the maximum duration that the register can reach. If consecutive retriggers or a sustained fault happens, the Maximum Record time establishes the limit of time that the COMTRADE file will register. The maximum duration of the disturbance record is 60 minutes.
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3.3 Sampling Rate
The disturbance recorder and the continuous disturbance recorder have independently configurable sampling rate that can be set to: 1, 2 or 4 samples/cycle. The binary inputs in the disturbance register are recorded with the same sapling rate as the analog channels.
3.4 Trigger Burst Limiter
There is a user-configurable trigger burst limiter for the disturbance recorder which is identical to the waveform recorder limiter Trigger Burst Limiter 1.4.
4 Trend Recorder
The trend recorder is responsible for recording minimum, maximum and average values of RMS, DC measurement and active, reactive and apparent power. The recording rate is the same as the Calculation period configured. And the duration of the record is configurable from 1 to 24 hours.
5 SOE - Sequence of Events Records
The sequence of events recorder registers the status of the binary inputs, binary output and GOOSE inputs. The recorder creates a XML file that groups the events according to COMFEDE standard (IEEE C37.239-2010 Standard for Common Format for Event Data Exchange). The events in the SOE are recorded with accuracy better than 100µs.
The parameter “Aggregation Period” sets the duration of the records and time interval
that new records are created. The aggregation period can be configured from 1 – 1440 min.
5.1 Sampling Rate
The SOE sampling rate is the same sampling rate configured in the Waveform Recorder: 256 or 512 samples/cycle. In case the Waveform in not enabled in the configuration the SOE recorder will use 256 samples/cycle as sampling rate.
6 Record Format and Naming, and Mass Storage Capacity
6.1 Record Format
Records are created in accordance with the COMTRADE standard IEEE C37.111-2013, IEEE Standard Common Format for Transient Data Exchange for Power Systems. The
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COMTRADE records in the DR60 are comprised by the “.cfg” and “.dat” files described in
the standard.
6.2 Record Naming
Records are named using the COMNAME methodology, according to IEEE C37.232­2011, Common Format for Naming Time Sequence Data Files (COMNAME). Fault, Disturbance, Steady-state, and Sequence of Events records are named as follows:
STARTDATE,STARTTIME,TIMECODE,STATIONID,DEVICEID,COMPANY,DURATION.CFG STARTDATE,STARTTIME,TIMECODE,STATIONID,DEVICEID,COMPANY,DURATION.DAT
The table below describe each parameter in the file name.
Parameter
Format
Description
STARTDATE
yymmdd
Record’s start date
(year, mounth, day)
STARTTIME
hhmmssuuuuuu
Record’s start time
(hour, minutes, seconds,
microsseconds)
TIMECODE
soohmm
Indication of timezone offset
(the last three characters are
included only when fractional hours
are in use)
STATIONID
Location of the equipment,
configurable in:
GENERAL > LOCATION
(up to 255 characters)
DEVICEID
Equipment identifier, configurable
in:
GENERAL > IDENTIFIER
(up to 61 characters)
COMPANY
Equipment owner description,
configurable in:
GENERAL > OWNER
(up to 255 characters)
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DURATION
sssssuuuuuu
Duration of the record
(seconds, microsseconds)
6.3 Mass Storage Capacity
Memory type
SSD Capacity
Fault
19,1 GB
Disturbance
7,7 GB
SOE
1 GB
Trend
1 GB
The equipment can be configured to automatically remove the oldest records as the soon as mass storage occupation exceeds 90%. All DR60 files including configuration and records are stored in the SSD non-volatile memory.
7 Record Management and Access
In order to retrieve the COMTRADE files from the DR60, user can use either a SFTP client or the DR Manager tool. The DR60 is equipped with a SFTP server, any tool compliant to communicate via SFTP protocol is able to connect to the DR60 to download records.
To do so, using the SFTP client, access the DR60 address at port 22 and use the access credentials. Below are the default users and passwords:
User
Password
ADM
RX8jg3S&mDx
CFG
UV@bM8DtqAN
MON
QcURcm"Gk3P
In order to download the records using the DR Manager, open the DR Manager tool and follow the instructions below.
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7.1 Creating Installations
Within the DR Manager software, the process to create a new Installation is:
1. Click <SETTINGS> menu and then click <INSTALLATIONS>;
2. Click <NEW> to create. Type the Installation's name and description and then
press <OK>. The user can view the list of registered substations and add, edit, or remove a substation. Substations can only be removed without any equipment being associated.
7.2 Creating Devices
The user can view the list of registered equipment, add, edit, or remove some equipment. Equipment can only be removed when there is no transmission line associated and if the Auto Polling is disabled.
The process to create a new device is:
Click <SETTINGS> menu and then click <DEVICES>;
Click <NEW> to create.
At <HOST>, type equipment's IP address;
Choose the model of the device: RPV or DR60
Choose device installation in the Installation list;
Click at <Get Info> and then press <Ok>.
The figure below shows the Device configuration window.
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Chapter 6: PMU
This chapter provides detailed information about the PMU feature.
1 Synchrophasor Measurement and Broadcast
The DR60 provides powerful and cost-effective synchrophasor measurement solution according to IEEE C37.118.1/2-2011/1a-2014 standards and is capable of transmitting synchrophasors in up to 4 separate data streams. Each stream can be configurable independently based on: contents; frame rate; performance class (P or M) and communication mode (TCP or UDP).
1.1 Reported Values
Reported values
Phasors
Voltage synchrophasors (any phase)
Current synchrophasors (any phase)
Positive and Negative sequence for voltage circuits
Positive and Negative sequence for current circuits
Frequency
Frequency and frequency variation of one circuit
1.2 Accuracy Limits
The Total Vector Error defined through
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 
󰇛󰇛󰇜  󰇜 󰇛󰇛󰇜  󰇜
 
Represents the magnitude of the error vector, obtained by subtracting the measured synchrophasor of the theoretical value. It is represented as a fraction of the magnitude of the theoretical value.
In the equation above, 󰇛󰇜 and 󰇛󰇜 are the measured values, while  and
are the theoretical values of the input signal at the instant of measurement. All 1A and 5A analog inputs/boards have the proper accuracy necessary for the PMU solution to be rated as level 1 compliant according to IEEE C37.118 under the condition below.
Influence quantity
Range
TVE max
Signal frequency
± 5 Hz of Fnom
1 %
Signal magnitude
10 % … 120 %
rated
1 %
Phase angle
± 180°
1 %
Harmonic distortion
10 % ¹
1 %
Out-of-band interfering signal ³
 
10 % ²
1 %
¹ Any harmonic up to 50

order
² Of input signal magnitude
³  frequency of interfering signal,  nominal frequency and
synchrophasors
broadcast frequency
1.3 Communication Ports, Transmission Rates
The PMU streams have their source port configurable from the port 4712 to 4732. Always configure different streams at different ports. Only 1 stream can work at once per port. The DR60 allows the following transmission rates: 60 frames/second at 60 Hz and 50 frames/second at 50Hz.
1.4 Configuration
To quickly configure the DR60 to transmit PMU, follow the steps below:
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1) Go to the Analog configuration tab and add a new circuit. Configure the physical
inputs and transformer ratios.
2) Click (A in the figure above), the screen below will show up. Activate the
PMU Class and select the fps configuration. Every PMU is mapped in separate IEC 61850 logical node. Fore more detail on these configuration screens, refer to Chapter 4 – Configuration; 5.2.1 Bay Arrangement (MMXU/MMXN)
3) A new dataset containing the PMU synchrophasor, frequency and rate of change of
frequency will be created automatically for each PMU circuit and class. The datasets can be access on the Dataset configuration tab shown in the figure below. For more details on the Dataset configuration tab, refer to Chapter 4 – Configuration; 5.4.2 Datasets
A
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4) Access Communication> C37.118.2-20188 (PMU) configuration tab to configure the
communication parameters related to the PMU streams, figure below. Chapter 4 – Configuration; 5.4.6 C37.118.2-2011 (PMU)
1.5 Transmission Protocol
The synchrophasor data frames are transmitted from the PMU over Ethernet using TCP/IP or UDP/IP. TCP (Transmission Control Protocol) is a connection-oriented protocol. It manages message acknowledgement, retransmission and timeout. TCP is reliable and ordered,
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but high on overheads. UDP (User Datagram Protocol) is a simpler protocol that transmits messages irrespective of the state of the receiving device. It does not care whether the frames arrive at their destination or not, and it will not retransmit lost frames. UDP is unreliable and disordered, but low on overheads. The choice of protocol will come down to the specific requirements of the application. UDP is usually used for streamed real-time data, where the loss of a few pieces of information is not critical, but where real-time transmission is necessary (for example, live television pictures). TCP is usually used where the integrity of the sent data must be guaranteed (for example a file transfer).
1.6 Communication Mode
1.6.1 Spontaneous
Spontaneous UDP may be required for several reasons, e.g. for security purposes, where a firewall has been set up to block incoming data. With spontaneous UDP, the PMU will continually transmit the phasor data, interspersed with configuration data. This is configured such that it transmits a batch of phasor data followed by a few frames of configuration data continuously. There configuration frames sent is the CFG-2. The configuration or header frames will be sent every minute in addition to the regular transmission of the phasor data. Two types of spontaneous destination are available: unicast and multicast. The sending device needs to know where to send the data. So, the user needs to define the destination UDP port number and IP address (unicast or multicast) in the
Destination Address field.
1.6.2 Commanded
The Commanded mode supports two types of transmission protocols: UDP and TCP. In this mode, the PMU can accept commands from outside, therefore the receiving device can initiate and control the flow of communication. The commanded PMU will only start transmitting synchrophasors after receiving and external command to do so. The destination address is the same as the address sending the command.
1.7 Standards Compliance
The DR60 PMU Class M and P complies with the following standards:
IEEE C37.118-2005 IEEE C37.118.1-2011 IEEE C37.118.2-2011 IEEE C37.118.1a-2014
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1.8 PMU Specification
PMU Specification
Number of simultaneous PMU streams
4 Performance Class
P and M
Communication Protocol C37.118.2
UDP or TCP
Communication mode
Commanded and spontaneous
PMU data
Voltage and current synchrophasors; frequency, rate of change of frequency and sequence components
Ethernet interfaces
2 RJ45 or 2 LC connector
VT inputs
115 V nominal; up to 16 inputs
CT inputs
1 or 5 A nominal; up to 16 inputs
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There are two parameters to be configured by the user:
Enable Auto COMTRADE Download: When enabled, the unit will be part of the Auto Polling process, where records not yet saved are automatically downloaded. Enable Auto Refreshing: When enabled, the unit will be part of the process of Auto Refresh, where the equipment state will be updated automatically during the process. The user can change the equipment host address, and enable or disable the "Enable Auto COMTRADE Download" and "Enable Auto Refreshing". At the end of the editing, the software automatically communicates with the equipment in order to upgrade the name and location information. If the equipment is associated with any transmission, a message will be shown to the user at the beginning of the Edit.
Note: Further and detailed information on the DR Manager configuration and use can be found in its technical manual DR_Manager_TM. Download on GE Grid website.
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Chapter 7: Communications
This chapter provides detailed information about the communication options and how to configure them
1 Communication Interfaces – Slot B
The DR60 has two Ethernet interfaces that can be either electrical or optical and two serial interfaces with DB9 female connectors, serial A is RS232 and serial B is RS232.
1.1 Electrical and Optical Ethernet
The DR60 has 2 Ethernet interfaces named Ethernet 1 and Ethernet 2. The table below describes the usage of each port:
Port
Usage
Ethernet 1
Configuration, monitoring, GOOSE publication/subscription, MMS report control block publication, DNP3, PMU, firmware upgrade, log and registers download.
Ethernet 2
Configuration, monitoring, PMU, firmware upgrade, log and registers download.
Both interfaces can be either optical with LC connectors or electrical with RJ45 connectors. The figure below shown the pinout diagram.
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Electrical and optical Ethernet inputs
To minimize EMC effects, the use of fiber-optic cables is recommended for applications where the length of the cable is greater than 3 m or connection between panels.
Note:
Applying signals to the Ethernet ports at 50 MHz frequency may cause mal functioning of the ports.
1.1.1 Ethernet Port Default Settings
The Ethernet interface default settings are:
Default Setting
Parameter
Ethernet port 1
Ethernet port 2
IP Address
192.168.0.199
192.168.1.199
Network mask
255.255.255.0
255.255.255.0
Gateway
192.168.0.254
192.168.1.254
1.2 Serial Port
The DR60 has 2 serial ports with DB9 female connectors. The serial ports can be used for configuration download/upload, firmware upgrade and logs download. The Serial A is RS232 type. The Serial B is RS232 and RS485. The pinout of the serial ports is shown in the figure below.
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Serial communication port
2 Communication Ports and Protocols
The DR60 web interface was designed using the GE Predix UI platform and it can be accessed using Mozilla Firefox or Google Chrome browser from computers, cellphones or tablet. The web interface uses the follow ports and protocols. These ports must be properly configured in the routers and firewalls for the communication work completely.
Port
Protocol
Use
22
SFTP
Download COMTRADE files
22
SSH
Configuration download and upload,
logs download and firmware upgrade
443
HTTPS
Web monitoring interface
102
MMS
MMS Report control block
4220
UDP/IP
IP recovery tool Ethernet 1
4221
UDP/IP
IP recovery tool Ethernet 2
502
TCP
MODBUS interface
20000
DNP3
DNP3 transmission
4712-4732
PMU
C37.118.2-2011 PMU transmission
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3 Recovering the DR60 IP Address
To verify recover the DR60 IP address or to validate the communication between the device and the computer, the DR60 has a scanning tool in the DR60 Configurator tool, which scans the network returning the IP Address of the found DR60. The scanning tool in located in the Communication menu and is described in the Configuration Chapter.
4 Accessing the Equipment
The DR60 has basically two means of access. The windows tool named DR60 Configurator used to configure, download logs and firmware upgrade; and the Web Interface for monitoring and remote trigger. Detailed information on how to proceed the access using both ways is described in the Configuration Chapter. The minimum requirements for the web interface is described in the next section and the for the DR60 Configuration tool in the Installation Chapter.
4.1 Web Interface Minimum Requirements
Web interface requirement: Internet Explorer version 7 or higher, or Mozilla Firefox version 3.0 or higher;
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Chapter 8: Installation
This chapter provides information about the product installation.
1 Handling the Goods
Our products are of robust construction but require careful treatment before installation on site. This section discusses the requirements for receiving and unpacking the goods, as well as associated considerations regarding product care and personal safety.
Before lifting or moving the equipment you should be familiar with the Safety Information chapter of this manual.
1.1 Receipt of the Goods
On receipt, ensure the correct product has been delivered. Unpack the product immediately to ensure there has been no external damage in transit. If the product has been damaged, make a claim to the transport contractor and notify us promptly. For products not intended for immediate installation, repack them in their original delivery packaging.
1.2 Unpacking the Goods
When unpacking and installing the product, take care not to damage any of the parts and make sure that additional components are not accidentally left in the packing or lost. Do not discard any CDROMs or technical documentation. These should accompany the unit to its destination substation and put in a dedicated place. The site should be well lit to aid inspection, clean, dry and reasonably free from dust and excessive vibration. This particularly applies where installation is being carried out at the same time as construction work.
1.3 Storing the Goods
If the unit is not installed immediately, store it in a place free from dust and moisture in its original packaging. Keep any de-humidifier bags included in the packing. The de­humidifier crystals lose their efficiency if the bag is exposed to ambient conditions.
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Restore the crystals before replacing it in the carton. Ideally regeneration should be carried out in a ventilating, circulating oven at about 115°C. Bags should be placed on flat racks and spaced to allow circulation around them. The time taken for regeneration will depend on the size of the bag. If a ventilating, circulating oven is not available, when using an ordinary oven, open the door on a regular basis to let out the steam given off by the regenerating silica gel. On subsequent unpacking, make sure that any dust on the carton does not fall inside. Avoid storing in locations of high humidity. In locations of high humidity, the packaging may become impregnated with moisture and the de-humidifier crystals will lose their efficiency. The device can be stored between –25º to +70ºC for unlimited periods or between ­40°C to + 85°C for up to 96 hours (see technical specifications).
1.4 Dismantling the Goods
If you need to dismantle the device, always observe standard ESD (Electrostatic Discharge) precautions. The minimum precautions to be followed are as follows: Use an antistatic wrist band earthed to a suitable earthing point. Avoid touching the electronic components and PCBs.
2 Normal Use of the Equipment
To maintain the equipment integrity, levels of protection and assure user safety, the shall be installed in an enclosed panel with recommended ingress protection rating of IP42 or above. The DR60 shall be kept in an environment where it is protected against impact and water. The enclosing panel shall ensure that the equipment rear connections are not exposed, meanwhile maintaining adequate temperature and humidity condition for the devices. Furthermore, the equipment shall have all their rear connectors attached, even if not being used, in order to keep their levels of ingress protection as high as possible. The DR60 is IEC 60255-27:2014 Overvoltage Category III and Pollution Degree II (using the 100-250 Vdc / 110-240 Vac power supply); or Overvoltage Category II and Pollution Degree II (using the 24-48 Vdc power supply). These ratings allow mounting of the equipment indoors or in an outdoor (extended) enclosure where the equipment is protected against exposure to direct sunlight, precipitation, and full wind pressure. During the normal use of the device only its frontal panel shall be accessible.
3 Mounting the Device
3.1 DR60 Mechanical Installation
The screws used for fixation are of the M6 type. It is possible to order an optional support for installation of one or two units adapted to a 19-inch rack. To install either a single or two modules of the DR60 use the optional supports shown in the Installation Chapter - Accessories
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For information about the equipment dimensions, refer to the Technical Specifications Chapter. The equipment is designed for outdoor installation in proper panel. The panel must be designed for the environmental conditions to which it is subject. The DR60 should always be sheltered from the weather. For indoor use, the equipment must be installed inside panel with IP41 (IEC) enclosure protection or minimal type 3 (NEMA). For outdoor use, the equipment must be installed inside panel with IP55 (IEC) enclosure protection or type 3, 3X, 3S or 3SX (NEMA), according to the local environmental conditions, complying the IEC 60529 and NEMA 250-2003 standards requirement. The panels should be submitted to insulation test according to IEC 60255-5 standard (minimum insulation resistance of 10 MΩ and be submitted to test of dielectric voltage insulation of 2kV a.c.) An additional panel designed for the DR60 application environment may be provided upon request. For more information on panel options, please contact GE Contact Center.
It is recommended that 1 rack unit of space (1.75”) be kept unpopulated and free of equipment above each DR60 to allow for a small amount of convectional airflow. Although forced airflow is not necessary, any increase in airflow will result in a reduction of ambient temperature that will improve long-term reliability of all equipment mounted within the rack space.
4 Cables and Connectors
This section describes the type of wiring and connections that should be used when installing the device, as well as pin-out details.
Before carrying out any work on the equipment you should be familiar with the Safety Section and the ratings on the equipment’s rating label.
In order to meet the EMC CISPR22 emission levels, the power supply, CT, VT and binary signals connection shall use screened (shielded) cables with screen coverage of 70%; Core wires should have 2.0 mm² cross section and be as short as possible; The shield
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should be connected to any of the two functional earth terminal screws positioned on the upper and lower-middle parts of the frontal panel of the equipment through short pigtails. Recommended lug terminal to the pigtail end connection.
4.1 Power Supply Connections
The unit can be powered from DC or AC power within the limits specified in the Technical Specifications Chapter. All power connections should use insulated flameproof screened/shielded cable with a
2.0 mm2 cross section, 70° C (158 °F) thermal class, and 750 V insulation voltages. To reduce the risk of electrical shock, pre-insulated tubular pin terminals should be used on the ends of the power connections.
Pre-insulated tubular pin terminals
The pin terminals should be completely inserted into the connector supplied with the unit so that no metallic parts are exposed, according to the picture below.
Supplied connector assembly
For optimal electromagnetic compatibility, ground the unit by using a screened/shielded cable with insulated flexible wires of 2.0 mm² cross section connected to the rear panel of the device using the protective earth screw.
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4.1.1 AC and DC Power Connection
Figure below shows the wiring diagram for the AC and DC power connection. Phase or positive should be applied to terminal A05, neutral or negative to terminal A06, and ground to terminal A04.
AC and DC power connection
For safety purposes, install a suitable external switch or circuit breaker in each current­carrying conductor of DR60 power supply; this device should interrupt both the hot (+/L) and neutral (-/N) power leads. An external 10 A, category C, bipolar circuit-breaker is recommended. The circuit breaker should have an interruption capacity of at least 25 kA and comply with IEC 60947-2. The switch or circuit-breaker must be suitably located and easily reachable, also it shall not interrupt the protective earth conductor. For information about the nominal operating voltage range or maximum voltage applicable, power and frequency, refer to Technical Specifications Chapter.
4.2 Powering Up
1. Before energizing the unit, be familiar with all the risk and attention indicators in the
equipment’s frame.
2. Connect the power supply (including the ground strap) to the appropriate terminals. The equipment will start the boot process.
3. The equipment performs a self-test procedure. At the end of the self-test, if it is operating and has already been configured, the IN SERVICE indicator lights up on the front panel of the equipment and the signaling contact IN SERVICE on the rear panel of the equipment will be on.
4. If is the first time using the equipment, it is necessary to configure it. Before the configuration, equipment will performance accordingly with the application.
5. To turn off the unit, disconnect the power supply (including the ground strap) from the terminals. All front and rear panel indicators will turn off. In case the unit does not behave in a way here described or if the ALARM indicator lights up, turn off the equipment and carefully check all power and signal connections. Repeat the procedure described and if the problem persists, please contact GE Contact Center. For additional suggestions for problem diagnosis, refer to Maintenance Chapter.
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Note:
The equipment will not come into operation mode, and will not light up the IN SERVICE indicator, before the first configuration
4.3 Earth Connection
To ensure proper operation of the equipment under adverse conditions of electromagnetic compatibility, connect the equipment protective earth terminal to the panel using a screened/shielded cable with insulated flexible wires of 2.0 mm² cross section. As shown in the figure below.
DR60 Earthing
Additionally, to meet the EMC CISPR22 emission levels, two other functional earth terminals are available on upper-middle and lower middle parts of the frontal panel (see Installation Chapter Section 3.1 DR60 Frontal Panel) of the equipment marked with the sing below:
Power supply, CT, VT and binary signals shall use screened/shielded cable. Connect the shield of the cable to both functional earth terminals using short pigtails with lug terminals.
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4.4 IN SERVICE Contact
The DR60 has a contact for signaling equipment failure (failsafe), located in Slot A, shown in figure below. The IN SERVICE contact is normally closed (NC) and it opens when the equipment goes into normal operation. In case of firmware or hardware failure or shutdown of the equipment, the contact will close.
IN SERVICE contact for signaling equipment failure
For information about the IN SERVICE contact specifications, refer to the Specifications Chapter. Connections shall use insulated flexible wires of 1.5 mm² cross section, voltage rating of 300Vrms. Apart from the turning off, the events on the alarm table below will active the IN SERVICE contact:
Alarms
Description
Card not detected
Happens when any board according to the device CORTEC is not detected
Card not compatible
Happens when any board is not in accordance with the device CORTEC
Invalid card
Happens when any board is not recognized by the device
Record memory full
Happens when the memory becomes 98% full
Loss of ethernet link 1
Loss of communication with ethernet interface 1
Internal temperature
Internal temperature exceeded 80°C
Internal voltage
Internal voltage automonitoring alarm
Record memory > 98%
Records memory exceeds 98%
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4.5 Optical IRIG-B Input
Time synchronization is provided by temporal signal format IRIG-B004. The IRIG-B ensures that the frequency of data acquisition stays constant and maintaining the internal clock synchronized. The DR60 has an optical IRIG-B input, located in Slot B, shown in figure below
Optical IRIG-B input
The equipment signals SYNC on the front panel when the data acquisition frequency is in accordance with the equipment’s nominal acquisition frequency and the equipment’s internal clock is updated. To synchronize the equipment using fiber-optic input, use the appropriate fiber-optic type, considering its minimum curvature radius. For information about the optical input specifications, refer to the Technical Specification chapter
4.6 Serial ports
The DR60 has 2 serial ports with DB9 female connectors. The serial ports can be used for configuration download/upload, firmware upgrade and logs download. The Serial A is RS232 type. The Serial B is RS232 and RS485. The pinout of the serial ports is shown in the figure below.
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4.7 I/O Nomenclature
The binary inputs in the DR60 Configurator are identified sequentially as Ind1, Ind2 up to Ind96. Each slot from Slot C to H reserves 16 channels for either binary inputs or binary outputs (BO). The current inputs are identified as TCTR and the voltage inputs as TVTR (IEC 61850 naming for analog channels for current and voltage respectively).
Below is a list with the designation of each input depending on its installation slot.
Slot C: Ind1…Ind16; BO 01…BO 08 (the first BI will be the Ind1) Slot D: Ind17…Ind32; BO 17…BO 32 Slot E: Ind33…Ind48; BO 33…BO 48; TCTR1…TCTR4; TVTR1…TVTR4 Slot F: Ind49…Ind64; BO 49…BO 64; TCTR5…TCTR8; TVTR5…TVTR8 Slot G: Ind65…Ind80; BO 65…BO 80; TCTR9…TCTR12; TVTR9…TVTR12 Slot H: Ind81…Ind96; BO 81…BO 96; TCTR13…TCTR16; TVTR13…TVTR16
Below is an example of the naming of the DR60 I/O according to the definitions mentioned aforementioned.
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Example of the binary and analog channels name tags
4.8 Binary Inputs and Outputs
The binary inputs and outputs are supported in slots C to H of the DR60. There are two different types of boards for the binary slots C and D, the first has 8 BO and 6 BI and the second board has 16 BI. It is possible to use either board in any slots from C to H.
A B C D E F G H
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Binary inputs and outputs of the B2 board (8 BO + 6 BI)
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Binary inputs of the B1 board (16 Binary input)
4.8.1 Binary Inputs
The digital inputs can be used to obtain information from the power system, for example, the state of circuit breakers and other elements. There are two options of binary input/output boards: B1: 16 binary inputs and; B2: 6 binary inputs (and 8 dry contact outputs) All the binary inputs are optoisolated. Note that, on the six-input slot, the first three inputs (terminals 17, 18 and 19 (of each module have a common negative indicated as ‘- (terminal 20). On the 16-input board, BIs 09 to 12 (terminals 17 to 20) have a common negative and 13 to 16 (terminals 22 to
25) have another common negative.
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BI connectors diagram and terminal polarity of the B2 board (6 BI + 8 BO)
Connectors diagram and terminal polarity of the B1 board (16 BI) for terminals 17 to 26.
For information about the digital inputs specifications, refer to Technical Specifications Chapter. The DR60 can work with up to 100% of its digital inputs and 50% of its digital outputs energized simultaneously at the maximum ambient temperature (considering the maximum number of inputs/output available). Connections shall use screened/shielded cables with insulated flexible wires of 1.5 mm² cross section, voltage rating of 300Vrms.
4.8.2 Binary Outputs
The digital outputs can be used to control switching units (circuit breaker and recloser, for example) and announcements for remote signaling of events and status. Each module has eight digital output channels. The digital outputs are shown in figure below.
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Digital outputs
For information about the digital outputs specifications, refer to Technical Specifications Chapter. The DR60 can work with up to 100% of its digital inputs and 50% of its digital outputs energized simultaneously at the maximum ambient temperature (considering the maximum number of inputs/output available). Connections shall use screened/shielded cables with insulated flexible wires of 1.5 mm² cross section, voltage rating of 300Vrms.
4.9 Voltage and Current Analog Inputs
Each analog slot (E and H) provides 4 AC/DC current inputs (1 or 5 A) and 4 AC/DC voltage inputs (115 V) or 4 DC transducer level voltage inputs (±10V) and 4 DC­transducer level inputs (0-20mA). All inputs are designated in DR60 software by their logical node name, as per IEC 61850 ed2. That means that the current inputs are names TCTR1 to TCTR16 and the voltage inputs names are TVTR1 to TVTR16. Additionally, the input name contains a prefix that associates the Slot the board is installed and the position of the input. For example, the figure below show the analog inputs designations from TCTR1 to 4 and TVTR1 to 4. In the DR Configurator tool, these inputs are named E1_TCTR1 to E4_TCTR4 and E5_TVTR1 to E8_TVTR4 The terminals in the position TVTR1, TVTR2 and TVTR3 share the same neutral, which is connected internally.
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Voltage and current analog inputs
4.9.1 Current Analog Inputs
Each analog board of the DR60 has 4 current inputs. The inputs types are AC/DC 1A, AC/DC 5A, AC/DC 1A and 5A (high accuracy for metering) or DC transducer 0-20mA.
Before making the electrical connection, make sure the signal is applied in accordance with the technical specifications of the equipment. For information about the analog current inputs specifications, refer to Technical Specifications Chapter. Connections shall use screened/shielded cables with insulated flexible wires of at least
2.5 mm² cross section, 8 mm ring terminals, and M3 holes, voltage rating of 300Vrms.
4.9.2 Voltage Analog Inputs
Each analog board of the DR60 has 4 voltage inputs. The inputs types are AC/DC 115V (for protection), AC/DC 115V (high accuracy for metering) or DC transducer ±10V.
Before making the electrical connection, make sure the signal is applied in accordance with the technical specifications of the equipment.
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For information about the analog current inputs specifications, refer to Technical Specifications Chapter. Connections shall use screened/shielded cables with insulated flexible wires of 1.5 mm² cross section and 5.08 mm pitch plug terminals voltage rating of 300Vrms.
5 Case Dimensions
5.1 DR60 Dimensions and Weight
Dimensions of the equipment
Height
222 mm / 8.7 in (5 U)
Width
222 mm / 8.7 in (½ 19'')
Depth
121 mm / 4.7 in
Weight
< 3.5 kg (< 7.72 lb)
DR60 dimensions are shown on the figure below.
DR60 Dimensions
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5.2 Panel Cutout
The DR60 panel cutout is shown in the figure below.
Panel cutout for DR60 installation
5.3 Accessories
DR60 accessories
Q061
Mounting panel to install two DR60 in a 19-inch rack + blank plate to cover one cutout in case only one DR60 is being used.
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5.3.2 Mounting Panel for Two DR60 (Q061)
Mounting Panel to install one/two DR60 in a 19-inch rack is shown in figure below. The mounting panel comes with a blank plate to cover one cutout in case only one DR60 is being used.
Double mounting chassis to install two DR60 in a 19-inch rack
6 DR60 Configurator Tools Installation
The DR60 Configuration Tool is the Windows based software responsible for device configuration, logs download and IED embedded software (firmware) upgrade.
6.1 Minimal requirements
The minimum hardware requirements, supported operational system and applications needed for the installation and implementation of the DR60 Configurator are described below.
Minimum hardware requirements:
Processor 1 GHz or higher, 32-bit (x86) or 64-bit (x64);
Minimum 1 GB RAM (32-bit) or 2 GB RAM (64-bit);
Minimum 1 GB free space on disk;
DirectX 9 or higher.
Supported operational system:
Windows
©
XP 32-bit (x86) or 64-bit (x64).
Windows
©
7 32-bit (x86) or 64-bit (x64).
Applications:
Microsoft dot.Net 4.0 version or higher;
FTDI Driver 2.08.24 version or higher;
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