Contents

C264/EN T/D10
- CONTENTS
- SAFETY & HANDLING
  - 1. INTRODUCTION
  - 2. HEALTH AND SAFETY
    - 2.1 Health and Safety
    - 2.2 Installing, Commissioning and Servicing
  - 3. DECOMMISSIONING AND DISPOSAL
  - 4. TECHNICAL SPECIFICATIONS FOR SAFETY
  - 5. HANDLING OF ELECTRONIC EQUIPMENTS
  - 6. PACKING AND UNPACKING
  - 7. GUARANTEES
  - 8. COPYRIGHTS & TRADEMARKS
    - 8.1 Copyrights
    - 8.2 Trademarks
  - 9. WARNINGS REGARDING USE OF SCHNEIDER ELECTRIC PRODUCTS
- INTRODUCTION
  - 1. INTRODUCTION TO MiCOM
  - 2. INTRODUCTION TO MiCOM GUIDES
    - 2.1 Chapters description
      - 2.1.1 Chapter Safety (SA)
      - 2.1.2 Chapter Introduction (IT)
      - 2.1.3 Chapter Technical Data (TD)
      - 2.1.4 Chapter Functional Description (FT)
      - 2.1.5 Chapter Hardware Description (HW)
      - 2.1.6 Chapter Connection diagrams (CO)
      - 2.1.7 Chapter HMI, Local control and user interface (HI)
      - 2.1.8 Chapter Installation (IN)
      - 2.1.9 Chapter Settings (ST)
      - 2.1.10 Chapter Communications (CT)
      - 2.1.11 Chapter Commissioning (CM)
      - 2.1.12 Chapter Record Sheet (RS)
      - 2.1.13 Chapter Maintenance, Fault finding, Repairs (MF)
      - 2.1.14 Chapter Lexicon (LX)
      - 2.1.15 Chapter Applications (AP)
      - 2.1.16 Annex (AN)
    - 2.2 Operation guide
    - 2.3 Technical guide
  - 3. INTRODUCTION TO MiCOM APPLICATIONS
    - 3.1 MiCOM Computers
    - 3.2 Applications and Scope
- TECHNICAL DATA
  - 1. SCOPE OF THE DOCUMENT
  - 2. CONFORMITY
  - 3. GENERAL DATA
    - 3.1 Design
    - 3.2 Installation Position
    - 3.3 Degree of Protection
    - 3.4 Weight
    - 3.5 Dimensions and Connections
    - 3.6 MiCOM C264 Computer: Configuration
      - 3.6.1 C264 Computer Comparison of Board Installations Between Models
      - 3.6.2 C264-80TE Computer Board Installation
        
        3.6.3 C264-60TE Computer Board Installation
        
        3.6.4 C264-40TE Computer Board Installation
        
        3.6.5 C264-80TE Computer Signals
        
        3.6.6 C264C-40TE Computer Signals
        
        3.6.7 C264-60TE Computer - Signals
    - 3.7 C264 Technical Data
      - 3.7.1 C264: Element limits
      - 3.7.2 C264: C264 with two extension racks with IEDs
    - 3.8 Terminals
    - 3.9 Creepage Distances and Clearances
  - 4. RATINGS
    - 4.1 Auxiliary Voltage
    - 4.2 Power Supply
      - 4.2.1 BIU241 Digital Outputs
      - 4.2.2 BIU261 Dual Sources power supply board
    - 4.3 Circuit breaker Control Unit (CCU) Digital Inputs
      - 4.3.1 CCU200 Digital Inputs
      - 4.3.2 CCU211 Digital Inputs
    - 4.4 Circuit breaker Control Unit (CCU) Digital Outputs
      - 4.4.1 CCU200 Digital Outputs
      - 4.4.2 CCU211 Digital Output
    - 4.5 Digital Input Unit (DIU) Digital Inputs
      - 4.5.1 DIU200 Digital Inputs
      - 4.5.2 DIU211 Digital Inputs
    - 4.6 Digital Output Unit (DOU) Digital Outputs
      - 4.6.1 DOU201 Digital Output
    - 4.7 Analogue Input Unit (AIU) Analogue Inputs
      - 4.7.1 AIU201 Analogue Input
      - 4.7.2 AIU211 Analogue Input
    - 4.8 Transducerless Measurement Unit (TMU) CT/VT Analogue Inputs
      - 4.8.1 General
      - 4.8.2 TMU220 Current Transformers (CT)
      - 4.8.3 TMU220 Voltage Transformers (VT)
      - 4.8.4 TMU210 Current Transformers (CT)
      - 4.8.5 TMU210 Voltage Transformers (VT)
      - 4.8.6 TMU2xx - A/D Converter
    - 4.9 Analogue Output Unit (AOU)
      - 4.9.1 AOU200 Analogue Outputs
  - 5. BURDENS
    - 5.1 Auxiliary Voltage
    - 5.2 Power Supply
    - 5.3 CPU Boards
    - 5.4 Circuit breaker Control Units (CCU) Input Burdens
      - 5.4.1 CCU200 Input Burden
      - 5.4.2 CCU211 Input Burden
    - 5.5 Digital Input Unit (DIU) Input Burden
      - 5.5.1 DIU200 Input Burden
      - 5.5.2 DIU211 Input Burden
    - 5.6 Digital Output Unit (DOU) Input Burden
      - 5.6.1 DOU201 Input Burden
    - 5.7 Analogue Input Unit (AIU) Input Burden
      - 5.7.1 AIU201 Input Burden
      - 5.7.2 AIU211 Input Burden
    - 5.8 Transducerless Measurement Unit (TMU) CT/VT Input Burden
      - 5.8.1 General
      - 5.8.2 TMU210 / TMU220 Input Burden
    - 5.9 Analogue Output Unit (AOU) Input Burden
      - 5.9.1 AOU200 Input Burden
    - 5.10 Ethernet Switches Board Input Burden
    - 5.11 Front Panel Board Input Burden
  - 6. ACCURACY
    - 6.1 Reference Conditions
    - 6.2 Measurement Accuracy
      - 6.2.1 Measurement Accuracy TMU220
      - 6.2.2 Measurement Accuracy TMU210
    - 6.3 How to Measure the Isolation Resistance
  - 7. TYPE TESTS
    - 7.1 Dielectric Strength Tests
      - 7.1.1 AIU211 Dielectric Strength Test
      - 7.1.2 ECU200/ECU201 Dielectric Strength Test
      - 7.1.3 MiCOM C264 and C264C Dielectric Strength Test
    - 7.2 Mechanical Test
    - 7.3 Atmospheric Test
    - 7.4 DC Auxiliary Supply Test
    - 7.5 AC Auxiliary Supply Test
    - 7.6 Electromagnetic Compatibility (EMC) Tests
- FUNCTIONAL DESCRIPTION
  - 1. SCOPE OF THE DOCUMENT
    - 1.1 Software features
    - 1.2 C264 Configurations
      - 1.2.1 SBUS - C264 with no IED
      - 1.2.2 SBUS - C264 with IEDs
      - 1.2.3 SBUS - C264 with two extension racks with IEDs
      - 1.2.4 SBUS - Two C264 redundant computers with IEDs
      - 1.2.5 SBUS - Two C264 redundant computers with two extension racks with IEDs
      - 1.2.6 SCADA TBUS - C264 Standalone computer with no IEDs
      - 1.2.7 SCADA TBUS - C264 Standalone computer with IEDs
      - 1.2.8 SCADA TBUS - C264 Standalone with two extension racks with IEDs
      - 1.2.9 SCADA TBUS - Two C264 Standalone computers, redundant
    - 1.3 CPU Boards: CPU260 Compared with CPU 270
    - 1.4 C264 Standalone
  - 2. MiCOM C264 MANAGEMENT
    - 2.1 Operating mode management
      - 2.1.1 Definitions
      - 2.1.2 Initialisation mode
      - 2.1.3 Operational mode
      - 2.1.4 Maintenance mode
      - 2.1.5 Test mode = DSPIO Maintenance Mode
      - 2.1.6 Faulty mode
      - 2.1.7 Halt mode
      - 2.1.8 Summary of modes, tests, transitions, and faults
      - 2.1.9 Redundancy Mode management
    - 2.2 Database management
      - 2.2.1 General
      - 2.2.2 How to download a database through the Ethernet
      - 2.2.3 How to switch the databases
      - 2.2.4 How to do a check of the database
      - 2.2.5 How to modify the database
      - 2.2.6 How to modify a parameter setting in the current DB
      - 2.2.7 How to consult a parameter setting
    - 2.3 Self tests
    - 2.4 Time management
      - 2.4.1 External clock
      - 2.4.2 Clock synchronisation message from a SCADA gateway
      - 2.4.3 SNTP Client and Servers
      - 2.4.4 Time set by an operator
      - 2.4.5 Local clock update
      - 2.4.6 Management of loss of external time reference
      - 2.4.7 Update method
      - 2.4.8 Limits and performances
  - 3. COMMUNICATIONS
    - 3.1 Telecontrol bus - TBUS
    - 3.2 Legacy bus - LBUS
    - 3.3 Station bus - SBUS
      - 3.3.1 Exchanges
      - 3.3.2 Supported Common Data Classes
      - 3.3.3 Controls
    - 3.4 Inter-rack Ethernet communication
      - 3.4.1 Internal Ethernet architecture
      - 3.4.2 External network behaviour
      - 3.4.3 Ethernet failure
      - 3.4.4 Other Ethernet rupture
      - 3.4.5 Ethernet Routing table
    - 3.5 Ethernet port management on CPU Type 3, CPU 270
    - 3.6 Telecontrol Bus redundancy
      - 3.6.1 Overview
      - 3.6.2 Link Redundancy
      - 3.6.3 Protocol Redundancy
      - 3.6.4 TBUS Redundancy T101 example
      - 3.6.5 Event file synchronization
  - 4. DIRECT PROCESS ACCESS
    - 4.1 Input Check
    - 4.2 Output check
    - 4.3 Time tagging
    - 4.4 Digital input acquisition (DI)
      - 4.4.1 Acquisition
      - 4.4.2 Debouncing and filtering
      - 4.4.3 Toggling
    - 4.5 Counters acquisition (CT)
      - 4.5.1 Single counter (SCT)
      - 4.5.2 Double counter (DCT)
    - 4.6 Digital measurement (DM)
      - 4.6.1 Acquisition without Read Inhibit signal
      - 4.6.2 Acquisition with Read Inhibit signal
      - 4.6.3 Encoding
    - 4.7 Analogue input acquisition (AI)
      - 4.7.1 Input ranges
      - 4.7.2 Acquisition cycle
    - 4.8 Digital outputs (DO)
    - 4.9 Digital Setpoints: SPS, DPS, MPS
      - 4.9.1 Encoding
      - 4.9.2 Read Inhibit
      - 4.9.3 Open / Close Select Order
    - 4.10 Analog Setpoints
      - 4.10.1 Output range
      - 4.10.2 Output management
      - 4.10.3 AOU Watchdog management
  - 5. DATA PROCESSING
    - 5.1 Binary Input Processing
      - 5.1.1 Binary Input Definition
      - 5.1.2 Processing of Single Point Status
      - 5.1.3 Processing of Double Point Status
      - 5.1.4 Processing of Multiple Point Status
      - 5.1.5 System Inputs (SI)
      - 5.1.6 IED inputs
      - 5.1.7 Group processing
      - 5.1.8 SBMC Mode Processing
      - 5.1.9 BI sent to automatism features
    - 5.2 Measurement Input Processing
      - 5.2.1 Measurement Input Processing - Focus
      - 5.2.2 Focus 1: Analogue Measurement Processing as far as Threshold Detection
      - 5.2.3 Open circuit management
      - 5.2.4 Scaling
      - 5.2.5 Zero value suppression
      - 5.2.6 Focus 2: Digital Measurement Processing as far as Threshold Detection
      - 5.2.7 Focus 3: TMU2XX: CT/VT measurement processing as far as Threshold Detection
      - 5.2.8 TMU2XX: CT / VT Calculations - General
      - 5.2.9 TMU220: CT / VT Calculations Inputs: Configuration
      - 5.2.10 TMU220: CT / VT Calculations - Inputs: Samples
      - 5.2.11 TMU220: CT / VT Calculations Outputs: Set of measurements
      - 5.2.12 TMU220: Measurements - General
      - 5.2.13 TMU220: List of Measurements
      - 5.2.14 TMU220: Algorithms
      - 5.2.15 TMU210: CT / VT Calculations - Inputs: Configuration
      - 5.2.16 TMU210: CT / VT Calculations - Inputs: Samples
      - 5.2.17 TMU210: CT / VT Calculations Outputs: Set of measurements
      - 5.2.18 TMU210: Measurements - General
      - 5.2.19 TMU210: List of Measurements
      - 5.2.20 TMU210: Algorithms
      - 5.2.21 Focus 4: All Measurement Values: Threshold Detection thru Transmission
      - 5.2.22 Manual suppression
      - 5.2.23 Substitution
      - 5.2.24 Forcing an invalid measurement
      - 5.2.25 Measurement resulting states
      - 5.2.26 Transmission
    - 5.3 Tap Position Indication (TPI) measurement processing
      - 5.3.1 Acquisition from Digital Inputs
      - 5.3.2 Acquisition from Analogue Inputs
      - 5.3.3 Manual suppression
      - 5.3.4 Substitution
      - 5.3.5 Forcing an invalid TPI
      - 5.3.6 TPI resulting states
      - 5.3.7 Transmission
    - 5.4 Accumulator Input Processing
    - 5.5 Energy counting
    - 5.6 Basic Data Manipulation
      - 5.6.1 Test Mode enhancements
      - 5.6.2 Device order running
      - 5.6.3 Controls management from PSL
      - 5.6.4 PSL and Redundant Operation
  - 6. CONTROL SEQUENCES
    - 6.1 Description
      - 6.1.1 General
      - 6.1.2 Control sequence phase management
      - 6.1.3 Direct Execute mode
      - 6.1.4 SBO once mode
      - 6.1.5 SBO many mode
      - 6.1.6 Generic selection checks
      - 6.1.7 Selection behaviour
      - 6.1.8 Generic execution checks
      - 6.1.9 Execution behaviour
      - 6.1.10 Controls time sequencing
      - 6.1.11 How an xPS starts a control sequence with following data
      - 6.1.12 Attribute Words definition
    - 6.2 Control of non synchronised breakers
      - 6.2.1 Non synchronised circuit breaker features
      - 6.2.2 Control sequence of non-synchronised circuit breakers
    - 6.3 Control of synchronised breakers
      - 6.3.1 Synchronised circuit breaker features
      - 6.3.2 Circuit breakers with external synchrocheck
      - 6.3.3 Circuit breakers with internal synchrocheck
    - 6.4 Control of disconnectors
      - 6.4.1 Disconnectors features
      - 6.4.2 Control sequence of disconnectors
    - 6.5 Control of transformers
      - 6.5.1 Transformer features
      - 6.5.2 Control sequence of transformers
    - 6.6 Control of ancillary devices
    - 6.7 Control of Intelligent Electrical Devices (IED)
      - 6.7.1 Control to IEDs
      - 6.7.2 IED controls
      - 6.7.3 Digital setting point (SP)
    - 6.8 System controls
    - 6.9 Kinds of control sequences
    - 6.10 Control sequences checks
      - 6.10.1 Mode Management
      - 6.10.2 IED connected
      - 6.10.3 Control mode
      - 6.10.4 Uniqueness of control
      - 6.10.5 Inter-control delay
      - 6.10.6 Status of the device
      - 6.10.7 Lock device
      - 6.10.8 Running Automation
      - 6.10.9 Interlocking
    - 6.11 HV Control Sequences
      - 6.11.1 Circuit breaker
      - 6.11.2 Disconnector
      - 6.11.3 Transformer
  - 7. AUTOMATIONS
    - 7.1 Built-in Automation functions
      - 7.1.1 Auto-Recloser (AR)
      - 7.1.2 Trip Circuit Supervision
      - 7.1.3 Circuit breaker condition monitoring (It)
      - 7.1.4 Automatic Voltage RegulationAVR
      - 7.1.5 Automatic voltage regulationATCC
    - 7.2 Synchrocheck
      - 7.2.1 Synchrocheck General
      - 7.2.2 Synchrocheck Schemes
      - 7.2.3 Synchrocheck Algorithm
      - 7.2.4 Synchrocheck Applications
      - 7.2.5 Synchrocheck Circuit Breaker Closure types
      - 7.2.6 Synchrocheck Type 1 and Type 2
      - 7.2.7 Synchrocheck Hardware constraints and use
      - 7.2.8 Synchrocheck Calculation
      - 7.2.9 Synchrocheck Introduction to Harmonics
      - 7.2.10 Synchrocheck Check Synchronising Locking Mode
      - 7.2.11 Synchrocheck System Synchronising Coupling Mode
      - 7.2.12 Synchrocheck: Scheme LL: Live Line, Live Bus: Real Time Sequences
      - 7.2.13 Synchrocheck Schemes that use VLINE and not(VBUSBAR) or not(Vline) and VBUSBAR voltage controls
      - 7.2.14 Synchrocheck Schemes that use not(Vline) and not(VBUSBAR) voltage control
      - 7.2.15 Synchrocheck Schemes that use Vline and Vbusbar voltage control
      - 7.2.16 Synchrocheck Type 1 - Logic of Interlock Authorisation
      - 7.2.17 Synchrocheck Type 2 - Logic of Interlock Authorisation
      - 7.2.18 Synchrocheck Bypass
      - 7.2.19 Phase-to-Phase Synchrocheck with the TMU210
      - 7.2.20 Synchrocheck Close request
      - 7.2.21 Synchrocheck General Configuration
      - 7.2.22 Synchrocheck Voltage control
      - 7.2.23 Synchrocheck Schemes control
      - 7.2.24 Synchrocheck Parameters of the TMU2xx board
      - 7.2.25 Synchrocheck Internal parameters
      - 7.2.26 Synchrocheck Digital Output (DO) of the circuit breaker
    - 7.3 Interlocking: logical equations
      - 7.3.1 Interlocking: Inputs
      - 7.3.2 Interlocking:Outputs
      - 7.3.3 Interlocking: Control
      - 7.3.4 Interlocking: Behaviour
    - 7.4 Slow automation: Programmable Logic Control (PLC)
      - 7.4.1 Inputs
      - 7.4.2 Outputs
      - 7.4.3 Control
      - 7.4.4 Behaviour
      - 7.4.5 Limits and specifications
    - 7.5 Fast automation: Programmable Scheme Logic (PSL)
    - 7.6 Fast Load Shedding ( FLS )
      - 7.6.1 C264M
      - 7.6.2 C264Fi
    - 7.7 Load Shedding C264 Standalone
      - 7.7.1 Inputs
      - 7.7.2 Algorithm
      - 7.7.3 Outputs
      - 7.7.4 Hypothesis and Constraints
      - 7.7.5 Configurable data
    - 7.8 Load Curtailment C264 Standalone
      - 7.8.1 Inputs
      - 7.8.2 Algorithm
      - 7.8.3 Outputs
      - 7.8.4 Hypothesis and Constraints
      - 7.8.5 Configurable data
  - 8. USER INTERFACE
  - 9. RECORDS
    - 9.1 Permanent records storage
      - 9.1.1 Data storage
      - 9.1.2 Waveform Recording: General
      - 9.1.3 Events
      - 9.1.4 Fast Waveform Recording
      - 9.1.5 Slow Waveform Recording
      - 9.1.6 Slow Waveform Recording Hypothesis
      - 9.1.7 Disturbance Recorder
    - 9.2 Non-permanent data storage
      - 9.2.1 Alarms
- HARDWARE
  - 1. SCOPE OF THE DOCUMENT
  - 2. HARDWARE DESCRIPTION
    - 2.1 Components
      - 2.1.1 Hardware Overview
    - 2.2 Rack styles
      - 2.2.1 MiCOM C264C
      - 2.2.2 MiCOM C264
    - 2.3 Coding of board address
    - 2.4 Modules description
      - 2.4.1 Power auxiliary supply and legacy ports board BIU241
      - 2.4.2 Dual source power supply board BIU261
      - 2.4.3 Central Processing Unit and base communications board CPU260
      - 2.4.4 Central Processing Unit and base communications board CPU270
      - 2.4.5 DSPIO board
      - 2.4.6 Circuit breaker Control Unit - CCU200
      - 2.4.7 Circuit breaker Control Unit - CCU211
      - 2.4.8 Digital Inputs Unit DIU200
      - 2.4.9 Digital Inputs Unit DIU211
      - 2.4.10 Digital Outputs Unit DOU201
      - 2.4.11 Analogue Input Unit AIU201
      - 2.4.12 Analogue Input Unit AIU211
      - 2.4.13 Transducerless Measurements Unit TMU220
      - 2.4.14 Transducerless Measurements Unit TMU210
      - 2.4.15 Analogue Output Unit AOU200
      - 2.4.16 Ethernet Switch Unit SWU200/SWU202
      - 2.4.17 Ethernet Switch Unit SWx202/SWx212, SWx204/SWx214 (x=R for dual Ring, x= D for Dual homing)
      - 2.4.18 Extended communication Unit ECU200
      - 2.4.19 Extended communication Unit ECU210
- CONNECTIONS
  - SCOPE OF THE DOCUMENT
  - 2. CONNECTOR BLOCKS
    - 2.1 I/O Connector Block
    - 2.2 CT/VT Connector Block
    - 2.3 Serial communications connections
    - 2.4 Optical communications connections
    - 2.5 Ethernet-based communications connections
  - 3. CONNECTION OF THE PROTECTIVE CONDUCTOR (EARTH)
    - 3.1 Earthing
    - 3.2 Cable fitting
  - 4. CONNECTION DIAGRAMS FOR EACH I/O BOARDS
    - 4.1 Power auxiliary supply and legacy ports board BIU241
      - 4.1.1 Connector description
      - 4.1.2 Block diagram
      - 4.1.3 BIU wiring for redundant C264
    - 4.2 Dual source power supply board BIU261
      - 4.2.1 Connector description
      - 4.2.2 Safety recommandations
      - 4.2.3 BIU wiring for redundant C264
    - 4.3 Central Processing Unit CPU260/CPU270
      - 4.3.1 Block diagram
      - 4.3.2 Connector description
      - 4.3.3 DSPIO board
    - 4.4 Circuit breaker Control Unit - CCU200/CCU211
      - 4.4.1 Block diagram
      - 4.4.2 Connector description
    - 4.5 Digital Inputs module DIU200
      - 4.5.1 Block diagram
      - 4.5.2 Connector description
    - 4.6 Digital Inputs module DIU211
      - 4.6.1 Block diagram
      - 4.6.2 Connector description
    - 4.7 Digital Outputs module DOU201
      - 4.7.1 Block diagram
      - 4.7.2 Connector description
    - 4.8 Analogue Input module AIU201
      - 4.8.1 Block diagram
      - 4.8.2 Connector description
    - 4.9 Analogue Input module AIU211
      - 4.9.1 Block diagram
      - 4.9.2 Connector description
    - 4.10 Transducerless Measurements Unit module TMU220
      - 4.10.1 Block diagram
      - 4.10.2 Connector description
    - 4.11 Transducerless Measurements Unit module TMU210
      - 4.11.1 Block diagram
      - 4.11.2 Connector description
    - 4.12 Analogue Output module AOU200
      - 4.12.1 Block diagram
      - 4.12.2 Connector description
    - 4.13 Ethernet Switch Unit - SWU200/SWU202
      - 4.13.1 Ethernet connectors description
      - 4.13.2 Fault signal connector description
    - 4.14 Ethernet Redundant Switch Unit - SWR202/SWR212, SWR204/SWR214
      - 4.14.1 Ethernet connectors description
      - 4.14.2 Fault signal connector description
    - 4.15 Dual Homing Ethernet Switch Unit - SWD202/SWD212, SWD204/SWD214
      - 4.15.1 Ethernet connectors description
      - 4.15.2 Fault signal connector description
    - 4.16 Front panel
- INSTALLATION
  - 1. SCOPE OF THE DOCUMENT
  - 2. REQUIREMENTS
  - 3. DELIVERY RECEPTION
  - 4. MECHANICAL MOUNTING
  - 5. WIRING INSTALLATION
  - 6. MiCOM C264 POWER UP
  - 7. MiCOM C264 SOFTWARE INSTALLATION
  - 8. DOWNLOADING DATABASE
  - 9. AFTER COMPUTER INSTALLATION
  - 10. OPTIONAL INSTALLATION
- SETTINGS
  - 1. SCOPE OF THE DOCUMENT
  - 2. TREE PANEL NAVIGATION
  - 3. TREE PANEL PARAMETERS
  - 4. MiCOM S1 (MS1)
    - 4.1 Presentation of parameters in MiCOM S1
    - 4.2 Upload a setting file to C264
      - 4.2.1 How to Send setting files to C264
      - 4.2.2 How to navigate into MiCOM S1
      - 4.2.3 How to edit online C264 values
      - 4.2.4 Edit ARPCCN parameters
      - 4.2.5 Edit AVR parameters
      - 4.2.6 Edit AUTORECLOSER ( TYPE 1 ) parameters
      - 4.2.7 Edit It parameters
      - 4.2.8 Edit INTERNAL SYNCHROCHECK ( TYPE 1 ) parameters
      - 4.2.9 Edit FBD parameters
    - 4.3 Download a setting file from C264
    - 4.4 The different computer modes of C264
    - 4.5 MiCOM S1 acknowledge
- COMMUNICATIONS
  - 1. SCOPE OF THE DOCUMENT
  - 2. SCP COMMUNICATION
    - 2.1 Communication on Station bus
      - 2.1.1 Finality
      - 2.1.2 Inputs
      - 2.1.3 Supported services
      - 2.1.4 Supported data objects
  - 3. INTER-RACK COMMUNICATION
    - 3.1 Overview
    - 3.2 Main1-Main2 communication
    - 3.3 Main-Extension communication
  - 4. SCADA COMMUNICATION
    - 4.1 Overview
    - 4.2 SCADA common functionality
      - 4.2.1 Interface to SCADA
      - 4.2.2 BCU
      - 4.2.3 RTU standalone
      - 4.2.4 Behaviour and specific treatments
      - 4.2.5 Data sent to SCADA
      - 4.2.6 Data sent to MiCOM C264
    - 4.3 Slave DNP3 profile (serial or over IP)
    - 4.4 Slave IEC 60870-5-101 profile
    - 4.5 Slave IEC 60870-5-104 Server profile
    - 4.6 Slave Modbus (MODICON) profile
    - 4.7 HNZ (Yemen) communication
      - 4.7.1 Finality
      - 4.7.2 Data sent to SCADA
      - 4.7.3 Data sent to computer
      - 4.7.4 Synchronisation
      - 4.7.5 Transmission
      - 4.7.6 Structures of frames
      - 4.7.7 Detailled list of messages of application
      - 4.7.8 Sequence of dialogue
      - 4.7.9 Summary of function code messages
      - 4.7.10 Configuration
      - 4.7.11 Cable
    - 4.8 HNZ (Elenas) communication
      - 4.8.1 Functional specifications
      - 4.8.2 Data Specifications
      - 4.8.3 Interface Specifications
      - 4.8.4 Basic Concepts
      - 4.8.5 Detailed Messages List
      - 4.8.6 Startup Sequence
      - 4.8.7 Message Summary
      - 4.8.8 Cable
  - 5. IED COMMUNICATION
    - 5.1 Overview
    - 5.2 IED Common functionality
      - 5.2.1 Interface to IEDs
      - 5.2.2 Behaviour
      - 5.2.3 Data received from IEDs
      - 5.2.4 Data sent to IEDs
      - 5.2.5 Tunnelling
      - 5.2.6 Limits and specifications
    - 5.3 MODBUS communication
      - 5.3.1 Scope of this section
      - 5.3.2 Generic MODBUS Communication
      - 5.3.3 Schneider Electric MODBUS COMMUNICATION
      - 5.3.4 IED SPECIFIC MODBUS
    - 5.4 DNP 3.0 Communication
      - 5.4.1 Scope of this section
      - 5.4.2 Interface to IEDs
      - 5.4.3 Behaviour
      - 5.4.4 Data received from IEDs
      - 5.4.5 Data sent to IEDs
      - 5.4.6 Master DNP3.0 Profile
      - 5.4.7 DNP.3 Level 3 Implementation Table
    - 5.5 IEC 60870-5-103 Communication
      - 5.5.1 Scope of this section
      - 5.5.2 Interface to IEDs
      - 5.5.3 Behaviour
      - 5.5.4 Data received from IEDs
      - 5.5.5 Data sent to IEDs
    - 5.6 IEC 60870-5-101 Communication
      - 5.6.1 Purpose
      - 5.6.2 Master IEC 60870-5-101 profile
- COMMISSIONING
  - 1. SCOPE OF THE DOCUMENT
    - 1.1 Introduction
    - 1.2 Definition
    - 1.3 Commissioning the product
    - 1.4 Responsibility
    - 1.5 Setting familiarisation
  - 2. REQUIREMENTS
  - 3. COMMISSIONING TESTS WITH GHU200 OR GHU201( WITH LCD)
    - 3.1 Preparation
    - 3.2 Check version & number
    - 3.3 Faults
    - 3.4 Check the boards status
    - 3.5 Checking the binary signal inputs
    - 3.6 Checking the output relays
    - 3.7 Testing the communication with external devices
    - 3.8 Testing the control functions
    - 3.9 Switching from local to remote control
      - 3.9.1 Local control
      - 3.9.2 Remote control
  - 4. COMMISSIONING TESTS WITH GHU210 OR GHU211(WITHOUT LCD)
- RECORD SHEET
  - 1. SCOPE OF THE DOCUMENT
  - 2. COMMISSIONING RECORD
  - 3. MAINTENANCE RECORD SHEET
- MAINTENANCE
  - 1. SCOPE OF THE DOCUMENT
  - 2. STANDARD MAINTENANCE OPERATION
    - 2.1 Level 1 diagnosis facilities
      - 2.1.1 Front panel LED indications
      - 2.1.2 Front panel LCD indications
      - 2.1.3 Adjustment of the brightness of the front panel LCD
    - 2.2 Maintenance period
    - 2.3 Method of repair
      - 2.3.1 Replacing the complete MiCOM C264/C264C
      - 2.3.2 Replacing a board
    - 2.4 Cleaning
  - 3. THE EMBEDDED MAINTENANCE WEB SERVER
    - 3.1 Maintenance data pages
      - 3.1.1 C264 general information page
      - 3.1.2 Databases general information page
      - 3.1.3 Racks and boards status page
      - 3.1.4 IED networks page
      - 3.1.5 CPU time and synchronisation page
    - 3.2 Process data pages
      - 3.2.1 Binary inputs page
      - 3.2.2 Measurements page
      - 3.2.3 Counters page
      - 3.2.4 TPI page
    - 3.3 Files upload pages
      - 3.3.1 Systrap error file upload page
      - 3.3.2 Stored event log file upload page
  - 4. ENGINEERING MAINTENANCE OPERATION
- GLOSSARY
  - 1. SCOPE OF THE DOCUMENT
  - 2. GLOSSARY
- ANNEX: COMMUNICATION ETHERNET SWITCHES
  - CONTENTS
  - 1. INTRODUCTION
  - 2. SWR21X RANGE - DUAL RING ARCHITECTURE
  - 3. SWD21X RANGE - DUAL HOMING ARCHITECTURE
  - 4. SWU20X RANGE - STAR ARCHITECTURE
  - 5. SWS21X RANGE - STAR ARCHITECTURE

Schneider Electric MiCOM C264 Technical Guide

Schneider Electric MiCOM C264 Controller manual cover

Pages 732

Year 2013

Language(s)

of 732

Schneider Electric MiCOM C264 Controller Specification

The Schneider Electric MiCOM C264 Controller is a versatile and robust automation device designed for substation and industrial control applications. It integrates advanced functionalities for protection, control, measurement, and monitoring within a single platform. The MiCOM C264 is equipped with a powerful processor that ensures high-speed data processing and real-time performance, making it suitable for critical infrastructure environments.

The controller supports a wide range of communication protocols, including IEC 61850, DNP3, Modbus, and IEC 60870-5-101/104, facilitating seamless integration into existing systems and enhancing interoperability. It features multiple I/O configurations, allowing for flexible customization to meet specific application requirements. The device includes both digital and analog inputs and outputs, providing comprehensive data acquisition and control capabilities.

The MiCOM C264 is designed with a modular architecture, enabling easy expansion and scalability. This modularity allows users to add or replace modules without disrupting the overall system, ensuring minimal downtime and maintenance. The controller also incorporates advanced cybersecurity measures, including secure communication channels and user authentication, to protect against unauthorized access and cyber threats.

The device is housed in a rugged, compact enclosure that meets stringent environmental standards, ensuring reliable operation in harsh conditions. It supports a wide operating temperature range and is resistant to shock and vibration, making it suitable for deployment in demanding industrial settings. The MiCOM C264 also features an intuitive user interface with a graphical display, simplifying configuration, monitoring, and diagnostics.

Overall, the Schneider Electric MiCOM C264 Controller offers a comprehensive solution for substation automation and industrial control, combining high performance, flexibility, and robust security features to meet the needs of modern infrastructure systems.