Page 1 GE Digital Energy SR350 revision: 2.0x 650 Markland Street Manual P/N: 1601-9094-AA Markham, Ontario GE publication code: GEK-113537J Canada L6C 0M1 TELEPHONE: Worldwide +1 905 927 7070 Europe/Middle East Africa +34 94 485 88 54 North America toll-free 1 800 547 8629...
Page 2 The contents of this manual are the property of GE Multilin Inc. This documentation is furnished on license and may not be reproduced in whole or in part without the permission of GE Multilin. The content of this manual is for informational use only and is subject to change without notice.
Page 3 Safety words and definitions The following symbols used in this document indicate the following conditions: Indicates a hazardous situation which, if not avoided, will result in death or serious Note injury. Indicates a hazardous situation which, if not avoided, could result in death or serious Note injury.
Page 5: Table Of Contents
DNP Ethernet protocol settings...................3 - 15 DNP communication.......................3 - 15 DNP device profile........................3 - 16 DNP port allocation .........................3 - 18 DNP implementation ......................3 - 19 DNP Ethernet EnerVista Setup ...................3 - 22 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 6 Data Frame Format and Data Rate ................6 - 1 Data Packet Format........................ 6 - 1 Error Checking........................... 6 - 2 CRC-16 Algorithm ........................6 - 2 Timing............................6 - 3 350 supported functions ...................... 6 - 3 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 7 Performing Commands Using Function Code 10H..........9 - 8 10. USING THE MODBUS User Map......................10 - 1 MODBUS USER MAP 11. APPENDIX Warranty ..........................11 - 1 Change notes........................11 - 1 Manual Revision history ......................11 - 1 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 9 Digital Energy SR350 Feeder Protection System Chapter 1: Communications interfaces Communications interfaces The 350 has three communications interfaces. These can be used simultaneously: • RS485 • • Ethernet 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 1–1...
Page 10 CHAPTER 1: COMMUNICATIONS INTERFACES 1–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 11: Rs485 Interface
Belden 9841 RS485 wire. Shielded wire should always be used to minimize noise. The shield should be connected to all of the 350 s as well as the master, then grounded at one location only. This keeps the ground potential at the same level for all of the devices on the serial link.
Page 12: Modbus Protocol
Modbus is a single master / multiple slave type of protocol suitable for a multi-drop configuration. The 350 is always a Modbus slave. It can not be programmed as a Modbus master. Computers or PLCs are commonly programmed as masters.
Page 13: Error Checking
If a 350 Modbus slave device receives a transmission in which an error is indicated by the CRC-16 calculation, the slave device will not respond to the transmission. A CRC-16 error...
Page 14: Timing
3.5 x 1 / 9600 x 10 = 3.65ms will cause the communication link to be reset. 350 supported functions The following functions are supported by the 350 : • FUNCTION CODE 03H - Read Setpoints •...
Page 15: Dnp Protocol Settings
SETPOINTS > RELAY SETUP > COMMUNICATIONS > DNP PROTOCOL > DNP GENERAL To view the list of DNP Binary Inputs please refer to the Format Codes section - FC134B - of this Guide. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 2–5...
Page 16: Dnp Device Profile
Maximum Application Layer Re-tries: ⊠None ⊠ None □Fixed at 3 □ Configurable □Configurable Requires Data Link Layer Confirmation: ⊠ Never □ Always □ Sometimes □ Configurable Requires Application Layer Confirmation: □ Never 2–6 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 17 Explanation of ‘Sometimes’: Object 12 points are mapped to Virtual Inputs and Commands (Force Coils). Both “Pulse On” and “Latch On” operations perform the same function in the 350 ; that is, the appropriate Virtual Input or Coil is put into the “On” state. The On/Off times and Count value are ignored.
Page 18: Dnp Implementation
Relative Time 07, 08 (limited quantity) Binary Output Status 1 (read) 00, 01(start-stop) 06 (Variation 0 is used to (no range, or all) 07, request default variation) 08 (limited quantity) 17, 28 (index) 2–8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 19 17, 28 (index) (see 07, 08 (limited Note 2) quantity) 17, 28 (index) Counter Change Event 1 (read) 06 (no range, or all) (Variation 0 is used to 07, 08 (limited request default variation) quantity) 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 2–9...
Page 20 07, 08 (limited 130 (unsol. quantity) resp.) 16-Bit Analog Change Event 1 (read) 06 (no range, or all) 129 (response) 17, 28 (index) without Time 07, 08 (limited 130 (unsol. quantity) resp.) 2–10 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 21 00 (start-stop) (index Note 3) No Object (function code 13 (cold restart) only) see Note 3 No Object (function code 14 (warm restart) --- only) No Object (function code 23 (delay meas.) only) 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 2–11...
Page 22: Dnp Serial Enervista Setup
00, 01, 06, 07, or 08, will be responded with qualifiers 00 or 01 (for changeevent objects, qualifiers 17 or 28 are always responded.) Cold restarts are implemented the same as warm restarts – the 350 is not restarted, but the DNP process is restarted.
Page 23 The DNP Time Sync IIN Period setting determines how often the Need Time Internal Indication (IIN) bit is set by the 350 . Changing this time allows the 350 to indicate that a time synchroniztion command is necessary more or less often •...
Page 24: Dnp General
Total_Number_of_Trips Requests for Object 20 (Binary Counters), Object 21 (Frozen Counters), and Object 22 (Counter Change Events) must be accepted. Function codes “Immediate Freeze”, “Freeze and Clear” etc. are accepted as well. 2–14 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 25: Iec 60870-5-103 Serial Communication
To view the list of Binary Inputs please refer to the Format Codes section - FC134B - of this Guide. Interoperability Physical layer Electrical interface ⊠ EIA RS-485 Number of loads for one protection equipment 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 2–15...
Page 26: Link Layer
Monitor direction blocked □ <21> Test mode □ <22> Local parameter setting □ <23> Characteristic 1 □ <24> Characteristic 2 □ <25> Characteristic 3 □ <26> Characteristic 4 □ <27> Auxiliary input 1 2–16 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 27 Teleprotection signal transmitted □ <77> Teleprotection signal received □ <78> Zone 1 □ <79> Zone 2 □ <80> Zone 3 □ <81> Zone 4 □ <82> Zone 5 □ <83> Zone 6 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 2–17...
Page 28 Time synchronization Table 2-13: General commands in control direction Semantics □ <16> Auto-recloser on / off □ <17> Teleprotection on / off □ <18> Protection on / off □ <19> LED reset 2–18 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 29 Current L3 □ ⊠ Voltage L1-E □ ⊠ Voltage L2-E □ ⊠ Voltage L3-E □ ⊠ Active power P □ ⊠ Reactive power Q □ ⊠ Frequency f □ ⊠ Voltage L1-L2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 2–19...
Page 30: Application Level
<0..127>:= private range <128..129>:= compatible range <130..143>:= private range <144..145>:= compatible range <146..159>:= private range <160..161>:= compatible range <162..175>:= private range <176..177>:= compatible range <178..191>:= private range <192..193>:= compatible range <194..207>:= private range 2–20 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 31: Information Number
<242..253>:= private range <254..255>:= compatible range The 350 relay is identified in this protocol as “overcurrent protection”, so it will use the Function Type <160> for all the digital and analogues points proposed by the standard and mapped in this profile. For the other data supported by the device, the customer will have the capability to use them by setting a number from the private range.
Page 32: Measurands
Identification Type 9 (ASDU 9) is selected, up to nine measurands can be sent in the IEC103 slave answer. For each measurand, all metering values that the 350 supports, are available in order to be mapped. There are 3 possible configurable ASDUS.
Page 33: Commands
Command 16 Information Number < 0 – 255 > Command 16 Operation ON FC500 Command 16 Operation OFF FC500 The “Command Operations ON and OFF” reuse the DNP Binary Outputs 43189, 43190, … 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 2–23...
Page 34: 103 General Settings
If the user sets a value other than 0 in the Synchronization Timeout setting, when this time expires without receiving a synchronization message, the Invalid bit will be set in the time stamp of a time-tagged message. It is necessary to configure other port settings: Baud Rate, etc. 2–24 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 35: Ethernet Interface
SR350 Feeder Protection System Chapter 3: Ethernet interface Ethernet interface The Ethernet option for the 350 provides both a 1300 nm optical interface, and a 10/100 auto-negotiating copper interface. To select which interface is active, a MODBUS setpoint (see below) must be modified:...
Page 36: Redundancy Options
Each copy of the frame is injected in a different direction of the ring. If any of the links between nodes is down, all nodes are still reachable. This topology forces every node in the 3–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 37: Parallel Redundancy Protocol (Prp)
PRP is designed to provide seamless recovery in case of a single failure in the network, by using a combination of LAN duplication and frame duplication technique. Identical frames are sent on two completely independent networks that connect source and destination, see next figure. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–3...
Page 38 IEC 61850-5 Clause 13 are still met. It is specified under Clause 13 (Message performance requirements) that messages of type 1A must meet the performance class P2/3, which is 3ms (See 3.7.1.1). Each device in the daisy chain forwards the message until it reaches the destination. 3–4 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 39: High-Availability Seamless Redundancy (Hsr)
A daisy chain is an interconnection of devices where each device is connected in series to the next. When an Ethernet daisy-chain redundancy is selected, the 350 has two Ethernet ports and it is working as an Ethernet unmanaged switch. The two Ethernet ports are used for conncting each device to the ports of its two neighboring devices, see figure.
Page 40: Modbus Tcp/Ip
CHAPTER 3: ETHERNET INTERFACE MODBUS TCP/IP This section describes the procedure to read and write data in the 350 relay using MODBUS TCP protocol. The MODBUS communication allows the 350 relay to be connected to a supervisor program or any other device with a master MODBUS communication channel.
Page 41 A value of FF 00 hex requests the coil to be ON. A value of 00 00 requests it to be OFF. All other values are illegal and will not affect the coil. Force Virtual Inputs: 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–7...
Page 42 Force Virtual Input 7 State 4102 Force Virtual Input 8 State 4103 Force Virtual Input 9 State 4104 Force Virtual Input 10 State 4105 Force Virtual Input 11 State 4106 Force Virtual Input 12 State 4107 3–8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 43 The normal response is an echo of the query, returned after the coil state has been forced. Field Name Slave Address Function Coil Address Hi Coil Address Lo Force Data Hi Force Data Lo 07H Read Exception Status Modbus Implementation: Read Exception Status 350 Implementation: Read Device Status 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–9...
Page 44 Here is an example of a request to preset two registers starting at 43851 to 00 01 and 00 00 hex, in slave device 254: Field Name Slave Address Function Starting Address Hi Starting Address Lo No. of Registers Hi No. of Registers Lo 3–10 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 45 This function is used to write settings in a specific settings group. Example: (In the example there is a write setting procedure in the Group 1 (00) , setting address 0x09C1 and 2 bytes of data with value 0x0001.) 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–11...
Page 46: Exception And Error Responses
Exception and error responses One data frame of an asynchronous transmission to or from a 350 typically consists of 1 start bit, 8 data bits, and 1 stop bit. This produces a 10 bit data frame. This is important for transmission through modems at high bit rates.
Page 47: Crc
If a 350 Modbus slave device receives a transmission in which an error is indicated by the CRC-16 calculation, the slave device will not respond to the transmission. A CRC-16 error...
Page 48 8. is j = 8? No: go to 5. Yes: go to 9. 9. i+1 —> i 10. is i = N? No: go to 3. Yes: go to 11. 11. A —> CRC 3–14 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 49: Dnp Ethernet Protocol Settings
The following path is available using the keypad. For instructions on how to use the keypad, please refer to Chapter 3 - Working with the Keypad. PATH: SETPOINTS > RELAY SETUP > COMMUNICATIONS > DNP PROTOCOL > DNP GENERAL 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–15...
Page 50: Dnp Device Profile
Received: 292 Received: 2048 Maximum Data Link Re-tries: Maximum Application Layer Re-tries: ⊠None ⊠ None □Fixed at 3 □ Configurable □Configurable Requires Data Link Layer Confirmation: ⊠ Never □ Always □ Sometimes 3–16 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 51 Explanation of ‘Sometimes’: Object 12 points are mapped to Virtual Inputs and Commands (Force Coils). Both “Pulse On” and “Latch On” operations perform the same function in the 350 ; that is, the appropriate Virtual Input or Coil is put into the “On” state. The On/Off times and Count value are ignored.
Page 52: Dnp Port Allocation
"Network-TCP" the DNP protocol can be used over TCP/IP channels 1 or 2. When this value is set to "Network-UDP" the DNP protocol can be used over UDP/IP on one channel only. 3–18 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 53: Dnp Implementation
Flag 8 (freeze noack) 9 06 (no range, or all) 17, 28 (index) (see (freeze clear) 10 07, 08 (limited Note 2) (frz. cl. noack) 22 quantity) 17, 28 (assign class) (index) 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–19...
Page 54 07, 08 (limited 130 (unsol. quantity) resp.) 16-Bit Frozen Counter Event 1 (read) 06 (no range, or all) 129 (response) 17, 28 (index) with Time 07, 08 (limited 130 (unsol. quantity) resp.) 3–20 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 55 Reporting Deadband 06 (no range, or all) 17, 28 (index) (see 07, 08 (limited Note 2) quantity) 17, 28 (index) 2 (write) 00, 01 (start-stop) 07, 08 (limited quantity) 17, 28 (index) 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–21...
Page 56: Dnp Ethernet Enervista Setup
00, 01, 06, 07, or 08, will be responded with qualifiers 00 or 01 (for changeevent objects, qualifiers 17 or 28 are always responded.) Cold restarts are implemented the same as warm restarts – the 350 is not restarted, but the DNP process is restarted.
Page 57 Binary Output Point 0 ON Select entry Virtual Input 1 to 32 and Force from a list Coils Binary Output Point 0 OFF Select entry Virtual Input 1 to 32 and Force from a list Coils 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–23...
Page 58: Dnp General
The DNP Time Sync IIN Period setting determines how often the Need Time Internal Indication (IIN) bit is set by the 350 . Changing this time allows the 350 to indicate that a time synchroniztion command is necessary more or less often •...
Page 59: Iec60870-5-104 Protocol
⊠ – used in the standard direction; □– not used. IEC 60870-5-104 Interoperability Document System or device: □ System definition. □ Controlling station definition (master). ⊠ Controlled station definition (slave). Application layer: Transmission mode for application data: 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–25...
Page 60 □ <40> := Packed output circuit information of protection equipment with time M_EP_TF_1 tag CP56Time2a Either the ASDUs of the set <2>, <4>, <6>, <8>, <10>, <12>, <14>, <16>, <17>, <18>, and <19> or of the set <30> to <40> are used. 3–26 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 61 □ <124> := Ack file, ack section F_AF_NA_1 □ <125> := Segment F_SG_NA_1 □ <126> := Directory (blank or X, available only in monitor [standard] direction) F_DR_TA_1 □ <127> := Query log - Request archive file F_SC_NB_1 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–27...
Page 62 ░ ░ ╳ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ╳ ░ ░ ░ ░ <15> M_IT_NA_1 ░ ░ █ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ █ ░ ░ ░ ░ <16> M_IT_TA_1 3–28 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 63 ░ <112> P_ME_NC_1 ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ <113> P_AC_NA_1 ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ ░ <120> F_FR_NA_1 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–29...
Page 64 ⊠ Group 3. ⊠ Group 4. ⊠ Group 5. ⊠ Group 6. ⊠ Group 7. ⊠ Group 8. ⊠ Group 9. ⊠ Group 10. ⊠ Group 11. ⊠ Group 12. ⊠ Group 13. 3–30 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 65 □ Low limit for transmission of measured values. □ High limit for transmission of measured values. 20. Parameter activation: □ Activation/deactivation of persistent cyclic or periodic transmission of the addressed object. 21. Test procedure: 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–31...
Page 66 RFC 2200 defined in this standard for given projects has to be chosen by the user of this standard. ⊠ Ethernet 802.3. □ Serial X.21 interface. □ Other selection(s) from RFC 2200 (list below if selected). 3–32 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 67: Iec 60870-5-104 Protocol Settings
NOTE: active at a time. The 350 can be used as an IEC 60870-5-104 slave device connected to a maximum of two masters (usually either an RTU or a SCADA master station). Since the 350 maintains two sets of IEC 60870-5-104 data change buffers, no more than two masters should actively communicate with the 350 at one time.
Page 68: Iec 60870-5-104 Point Lists
M_ME_NB_1 analog data. Each setting represents the threshold value for each M_ME_NB_1 analog point. For example, to trigger spontaneous responses from the 350 when a current value changes by 15 A, the "Analog Point xx Deadband" setting should be set to 15. Note that these settings are the default values of the deadbands.
Page 69: Summary Of Ethernet Client Connections
MODBUS MODBUS NOTHING MODBUS MODBUS MODBUS Table 3-14: Case D Settings Ethernet DNP CHANNEL 1 PORT DNP CHANNEL 2 PORT 104 GENERAL FUNCTION DISABLE Client 1 Client 2 Client 3 NOTHING MODBUS 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 3–35...
Page 70 Settings Ethernet DNP CHANNEL 1 PORT XX (any value) DNP CHANNEL 2 PORT XX (any value) 104 GENERAL FUNCTION ENABLE Client 1 Client 2 Client 3 IEC104 IEC104 NOTHING IEC104 IEC104 MODBUS 3–36 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 71: Sr3 Iec61850 Goose
Digital Energy SR350 Feeder Protection System Chapter 4: SR3 IEC61850 GOOSE SR3 IEC61850 GOOSE Simplified SR3 IEC61850 GOOSE configuration 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–1...
Page 72 Simplified GOOSE configuration tool. • For those not familiar with the SR3’s IEC61850 implementation and/or the SR3 menus, the SR3 Simplified GOOSE message tool may save time and effort. SR3 GOOSE capabilities 4–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 73: Setting Up The Sr3 Goose Configurator
The total number of items that can be received is affected by the number of GOOSE NOTE: receives that have been configured, the type of data item, and by whether or not the quality is to be received with the item. Setting up the SR3 GOOSE Configurator 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–3...
Page 74 GOOSE message containing the status of Virtual Input 1 to the relay labeled 230. Upon reception of the message, relay 230 will use this Virtual Input status to control output relay number 3. 4–4 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 75: Simplified Sr3 Iec61850 Goose Messaging
Once an IP address and subnet mask have been configured within each relay, and the power cycled, the relays can be connected though a switch to the computer running the SR3 configuration software. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–5...
Page 76: Configuration
Launch the SR3 software, and using the help menu, ensure that the EnerVista SR3 setup software is version 1.41 or higher. If it is not, go to the GE Digital Energy website and download the latest copy of the EnerVista SR3 Setup software before proceeding. .
Page 77 SR3PC V1.40 and higher provides an offline project (site) management tool to organize the settings files into related groups. An offline menu is provided to manage (Create/ Edit/Remove) the offline site and settings files in addition to invoking the SGC tool. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–7...
Page 78 Simplified GOOSE Configurator: This selection launches the Simplified GOOSE Configurator for the given site branch. The feature will be grayed out if the highlighted item is not a site name or settings file within a site branch. Therefore 4–8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 79 (in this case 228_GOOSE7) and location of the offline settings file. Once entered select Save, then OK. Note that the setting file name 228_GOOSE7 now appears under the site GOOSE. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–9...
Page 80 CHAPTER 4: SR3 IEC61850 GOOSE Repeat this process to enter the second setting file (using the name 230_GOOSE7), then again select Save and OK. Both settings files should now appear under the offline site GOOSE. 4–10 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 81 When we expand each device within the transmission column, we will see a tree similar to what we have in the offline tree. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–11...
Page 82 Also located at the bottom of the screen are the icons the restore Restore and Default: – Restore if selected will restore the screen to the last save position – Default if selected will set all the screen information to default values. 4–12 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 83 Before the final step of downloading the settings to each relay we need to enable the Virtual Input within 228_GOOSE7 such that we can change its status. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–13...
Page 84 Remote Input 1 to drive the status of Relay 3 as shown. Once these settings have been saved we can proceed to the next step: downloading the offline settings files to the relays. 4–14 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 85 Setting File to Device. This action will launch a second window showing all devices configured for the online window. To start the download process to Relay 228 click on Relay 228 such that it is highlighted, then select Send. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–15...
Page 86 230_GOOSE7 and relay 230. At this point the GOOSE messaging configuration is complete. To test the GOOSE messaging first, open the Virtual Input Commands window of Relay 228 and then under 230’s Actual Values branch open the Output Relays window. 4–16 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 87 Force Virtual Input number 1 of 228 on or off and monitor the status of Relay 3 in Relay 230. Note that the status of Relay 3 follows the status of Virtual Input 1 of Relay 228. This completes the exercise. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–17...
Page 88: Sr3 Goose Configuration Via The Iec 61850 Configurator
“3E” option and itself supports the configuration of both digital and analog items for transmission. This section of the Communications Guide deals with configuration of GOOSE messages via the SR3 IEC61850 Device Configurator. 4–18 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 89 Generic Input/Output logical nodes referred to as GGIO X where "X" represents an index (from 1 to 5 in the case of the SR3) used to differentiate between different GGIO logical nodes. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–19...
Page 90 The SR3 Contact I/O, Virtual Inputs and the status of Logic Elements are mapped into GGIO2, 3 and 4 respectively. Let’s take a moment to examine this further before moving on. We will take Virtual Inputs as our example: 4–20 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 91 GOOSE message in order to build the GOOSE message that this relay will eventually transmit. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–21...
Page 92: Sr3 Goose Configuration - Lab
SR3 configuration software. Please note that an IP address and subnet mask are not required for GOOSE messaging but are required to allow configuration of the relays via Ethernet. 4–22 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 93 Launch the EnerVista SR3 Setup software and using the Help menu, ensure that the software is version 1.41 or higher. If it is not, go to the GE Digital Energy website and download the latest copy of the EnerVista SR3 Setup software before proceeding.
Page 94: Configuration Lab Steps
Configure both SR3 relays into the SR3 software application using the following procedure 1.1. Launch the SR3 software and select Device Setup. 1.2. Select Add Site. 1.3. Enter an optional site name. 1.4. Select Add Device. 4–24 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 95 SR3 was not connected to the network correctly, or the IP address, subnet mask and/or the ModBus Slave address entered in the software does not match the relay. Troubleshoot accordingly. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–25...
Page 96 GOOSE message transmission of both relays to Advanced as follows: 1.11. For relay 228, open Setpoints > Communications > GOOSE Configuration > Transmission. 1.12. Set the GOOSE Type to Advanced. 1.13. Select Save. 1.14. Repeat for Relay 254. 4–26 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 97 SR3 GOOSE CONFIGURATION VIA THE IEC 61850 CONFIGURATOR Configure relay 228’s GOOSE transmission The following steps are used to configure relay 228’s transmission: 2.1. Right mouse Click on relay 228, then select IEC61850 Device Configurator to launch the software 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–27...
Page 98 “one” by a left mouse double-click on the cell to the left of the cell labeled "IEC Name" and enter “one”. 2.3. Select the GOOSE transmission tab to configure the actual GOOSE transmission name and data within the transmission that will be sent. 4–28 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 99 Sixty four of these data values can be dragged into the data settlements work area to form the GOOSE message that will be transmitted. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–29...
Page 100 Given that the SR3 software exports only the on-line CID file, the power to relay 228 must first be cycled before the file can be exported. 4–30 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 101 Enter a name for the CID file that will be exported (in our example lab, we will use the name 228_Lab_1), then select Save. Once saved, a confirmation message will appear on the computer screen. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–31...
Page 102 To load the structure of TX1 into relay 254, select ADD IED, then select the name of the file containing relay 228’s CID file which, in our example, is 228_Lab_1.CID, then select Open. 4–32 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 103 SR3 GOOSE CONFIGURATION VIA THE IEC 61850 CONFIGURATOR 3.5. Relay 228’s GOOSE message appears as an icon. This process can be repeated to load the structures of up to seven additional GOOSE messages into relay 254. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–33...
Page 104 Once the CID file is modified, relay 254’s power must be cycled to load the new CID file NOTE: settings for the GOOSE message into the on-line area to take effect. Testing. To test the operation, proceed as follows: 4–34 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 105 Virtual Input 1 of relay 228 is forced to a logic 1 or a logic 0, the status of Remote Input 1 of relay 254 changes to the same state, proving that the GOOSE transmission and reception were configured correctly. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–35...
Page 106: Sr3 Iec 61850 Goose Details
CHAPTER 4: SR3 IEC61850 GOOSE This completes the exercise. SR3 IEC 61850 GOOSE details The 350 firmware supports IEC61850 GOOSE communications on the optional communications daughter board. Portions of the IEC61850 standard not pertaining to GOOSE, are not implemented in the 350 relay.
Page 107: Enervista Sr3 Setup Software Structure
(one level of nesting) and all the standard data types. GOOSE settings changes will take effect only after the 350 relay is re-booted. One setting is available to Enable/Disable both Transmission and Reception. It is possible to change this setting from the Front Panel of the relay.
Page 108 SR3 IEC 61850 GOOSE DETAILS CHAPTER 4: SR3 IEC61850 GOOSE 4–38 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 109: Goose Transmission
SR3 IEC 61850 GOOSE DETAILS GOOSE transmission The 350 firmware supports one transmission dataset. All elements in the transmit dataset must be Booleans values. The user can define the number of items in the transmit data setup, to a maximum of 32.
Page 110 All the elements in a dataset can be mapped by the user to any available digital value within the 350 relay, including: • Alarm elements • Protection elements (Pickup, Dropout and Operate of all available protection elements) 4–40 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 111: Goose Rx
Remote Devices. Instead, it is simpler to deal with Remote GOOSE messages. The 350 firmware is able to receive up to a total of 8 remote GOOSE messages transmitted from up to a maximum of 8 remote devices.
Page 112 If a GOOSE message is received, and its header has not been configured for reception, the firmware ignores the message. It is possible to see this GOOSE status information from the 350 relay front panel. 4–42 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 113: Goose Rx Headers
Figure 4-3: EnerVista SR3 GOOSE Status page GOOSE Rx headers The 350 firmware supports GOOSE messages that contain up to one level of nesting, and that are capable of mapping only digital values to the remote inputs. The 350 firmware maintains the format of GOOSE messages that can be received in MODBUS registers.
Page 114: Goose Receive Dataset Structure
The screen then refreshes, reflecting the saved data. Clicking on NO will do nothing and the user can make changes on the screen (shown below). The RX GOOSE message data types that are handled by the software, are: 4–44 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 115: Goose Remote Inputs
The firmware allows the user to assign a string name to each of the 32 remote inputs, and allows the string name assigned to each remote input to be between 1 and 32 characters. 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–45...
Page 116 SR3 IEC 61850 GOOSE DETAILS CHAPTER 4: SR3 IEC61850 GOOSE Figure 4-6: EnerVista SR3 GOOSE Remote Inputs 1 Figure 4-7: EnerVista SR3 GOOSE Remote Inputs 2 4–46 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 117: Iec 61850 Logical Nodes
In the 350 there are many different settings where it is possible to select between a Contact Input (1 to 8 ), a Virtual Input (1 to 32 ) or a Logic Element (1 to 8 ). In all of these settings it is also possible to select Remote Input (1-32 ) if the GOOSE feature is enabled on the relay.
Page 118: System Logical Nodes (Ln Group: L)
PIOC (Instantaneous overcurrent) Table 4-4: phsPIOC to 2 phase instantaneous overcurrent PIOC class Attribute Name Attr. Type Explanation Notes PIOC Instantaneous overcurrent Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health 4–48 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 119 Table 4-7: hsePIOC to 2 sensitive ground instantaneous overcurrent PIOC class Attribute Name Attr. Type Explanation Notes PIOC Instantaneous overcurrent Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status Information 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–49...
Page 120 Table 4-10: phsPTOC to 1 phase time overcurrent PTOC class Attribute Name Attr. Type Explanation Notes PTOC Time overcurrent Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status Information 4–50 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 121 Time overcurrent Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status Information ACD_1 Start TOC PKP ACT_1 Operate TOC OP ACT_2 Block TOC BLK 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–51...
Page 122 PTOV Overvoltage Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status Information ACD_2 Start TOV PKP ACT_2 Operate TOV OP ACT_2 Block TOV BLK 4–52 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 123 PTUV Undervoltage Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status Information ACD_0 Start TUV PKP ACT_0 Operate TUV OP ACT_2 Block TUV BLK 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–53...
Page 124 Thermal Overload Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status Information ACD_2 Start TTR PKP ACT_2 Operate TTR OP ACT_2 Block TTR BLK 4–54 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 125: Logical Nodes For Protection Related Functions (Ln Group: R)
Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status Information ACD_0 Direction Fixed to Unknown Value ACT_0 Operate Phase Dir OP ACT_2 Block Phase Dir Block RREC (Autoreclosing) 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–55...
Page 126: Logical Nodes For Generic References (Ln Group: G)
Generic process I/O Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate Status information Ind1 SPS_0 General Indication Contact Input 1 ( binary input ) 4–56 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 127 SPS_0 General Indication Virtual Input 2 ( binary input ) Ind32 SPS_0 General Indication Virtual Input 32 ( binary input ) Controls SPCSO1 SPC_0 Single point Virtual Input 1 controllable status output 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–57...
Page 128 Ind16 SPS_0 General Indication Logic Element 16 ( binary input ) Table 4-31: GGIO5 to Remote Inputs ( GOOSE ) GGIO class Attribute Name Attr. Type Explanation Notes GGIO Generic process I/O 4–58 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 129: Logical Nodes For Metering And Measurement (Ln Group: M)
Table 4-33: MSQI (Sequence and imbalance) MSQI class Attribute Name Attr. Type Explanation M/O Notes MSQI Measurement Data Common Logical Node Information INC_0 Mode INS_0 Behaviour Health INS_1 Health NamPlt LPL_1 Name plate 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–59...
Page 130: Logical Nodes For Switchgear (Ln Group: X)
SPS class (Single point status) SPS_0 Attribute Name Attribute Type TrgOp Value/Value Range M/O/C DataAttribute status StVal Boolean dchg BVstring13 qchg Utctime Configuration, description and extension Vstring255 SPS_1 Attribute Name Attribute Type TrgOp Value/Value Range M/O/C 4–60 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 131 ACT class (Protection activation information) ACT_0 Attribute Name Attribute Type TrgOp Value/Value Range M/O/C DataAttribute Control and status General Boolean Dchg PhsA Boolean Dchg PhsB Boolean Dchg PhsC Boolean Dchg Bvstring13 Qchg 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–61...
Page 132 | forward | backward GC_2(3) Bvstring13 qchg Utctime Configuration, description and extension Vstring255 ACD_1 Attribute Attribute Type FC TrgOp Value/Value Range M/O/C Name DataAttribute Control and status General Boolean dchg 4–62 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 133: Common Data Class Specifications For Measurand Information
Measured attributes instCVal FloatAnalogueValue MX ------ FLOAT32 GC_1 FloatAnalogueValue MX dchg FLOAT32 GC_1 range ENUMERATED(Byte) MX dchg BVstring13 qchg Utctime Configuration, description and extension Units Unit SIUnit ENUMERATED(Byte) Multiplier ENUMERATED(Byte) INT32U zeroDb INT32 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–63...
Page 134 RangeConfig Vstring255 Table 4-41: Phase-to-ground related measured values of a three phase system (WYE) WYE class WYE_0 Attribute Name Attribute Type TrgOp Value/Value Range M/O/C Data phsA CMV_0 GC_1 phsB CMV_0 GC_1 4–64 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 135: Common Data Class Specifications For Controllable Status Information
Pos-neg-zero | dir-quad-zero O Configuration, description and extension Vstring255 Common data class specifications for controllable status information Table 4-44: Controllable single point (SPC) SPC class SPC_0 Attribute Name Attribute Type TrgOp Value/Value Range M/O/C 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–65...
Page 136 Vstring255 Table 4-46: Controllable integer status (INC) INC class (Controllable integer status) INC_0 Attribute Name Attribute Type TrgOp Value/Value Range M/O/C DataAttribute status StVal Enum dcgh On,blocked, test, test/ blocked,Off BVstring13 qchg 4–66 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 137: Common Data Class Specifications For Description Information
Value/Value Range M/O/C DataAttribute Control and status Vendor Vstring255 SwRev Vstring255 Vstring255 configRev Vstring255 AC_LN0_M LPL_1 Attribute Name Attribute Type TrgOp Value/Value Range M/O/C DataAttribute Control and status Vendor Vstring255 SwRev Vstring255 Vstring255 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 4–67...
Page 138 IEC 61850 COMMON DATA CLASS CHAPTER 4: SR3 IEC61850 GOOSE 4–68 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 139: Opc-Ua Communication Standard
EventsSDK – Software Development KitCTT – Compliance Test Tool OPC–UA Architecture The OPC communication is done through Client-Server architecture. In the case of the 350 relay, the relay is implemented as the Server. The parts that are being supported are: •...
Page 140: Opc-Ua Server Configuration Data
The OPC-UA server has implemented the following Analog, Digital, Input, Logic and Command points, as shown in the tables. Table 5-1: Analog points Data Description Real Power (kW) Reactive Power (kVAr) Apparent Power (kVA) Power Factor Freq Frequency (Hz) 5–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 141 Phase B IOC 1 PKP PIOC_1_phC_PKP Phase C IOC 1 PKP PIOC_1_OP Phase IOC 1 OP PIOC_1_phA_OP Phase A IOC 1 OP PIOC_1_phB_OP Phase B IOC 1 OP PIOC_1_phC_OP Phase C IOC 1 OP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 5–3...
Page 142 Neutral TOC 1 PKP NTOC_1_OP Neutral TOC 1 OP NTOC_1_BLK Neutral TOC 1 BLK GTOC_1_PKP Ground TOC 1 PKP GTOC_1_OP Ground TOC 1 OP GTOC_1_BLK Ground TOC 1 BLK SGTOC_1_PKP Sensitive Ground TOC 1 PKP 5–4 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 143 UF_1_BLK Under Frequency 1 BLK UF_2_PKP Under Frequency 2 PKP UF_2_OP Under Frequency 2 OP UF_2_BLK Under Frequency 2 BLK Therm_PKP Thermal Model PKP Therm_OP Thermal Model OP Therm_BLK Thermal Model BLK 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 5–5...
Page 144 VI_13 Virtual Input 13 VI_14 Virtual Input 14 VI_15 Virtual Input 15 VI_16 Virtual Input 16 VI_17 Virtual Input 17 VI_18 Virtual Input 18 VI_19 Virtual Input 19 VI_20 Virtual Input 20 5–6 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 145 RI_25 Remote Input 25 RI_26 Remote Input 26 RI_27 Remote Input 27 RI_28 Remote Input 28 RI_29 Remote Input 29 RI_30 Remote Input 30 RI_31 Remote Input 31 RI_32 Remote Input 32 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 5–7...
Page 146 Contact Output 5 CO_6 Contact Output 6 CO_7 Contact Output 7 Table 5-5: Logic points Data Description Logic_1 Logic Element 1 Logic_2 Logic Element 2 Logic_3 Logic Element 3 Logic_4 Logic Element 4 5–8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 147 Logic Element 11 Logic_12 Logic Element 12 Logic_13 Logic Element 13 Logic_14 Logic Element 14 Logic_15 Logic Element 15 Logic_16 Logic Element 16 Table 5-6: Commands Data Description Reset Reset Open Open Close Close 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 5–9...
Page 148 OPC–UA POINT LISTS CHAPTER 5: OPC–UA COMMUNICATION STANDARD 5–10 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 149: Usb Interface
Chapter 6: USB interface USB interface The USB inferface supports only the Modbus protocol. For information on using the USB port on the 350 relay, please refer to section 3 of the 350 Instruction Manual. MODBUS Protocol The 350 implements a subset of the Modicon Modbus RTU serial communication standard.
Page 150: Error Checking
If a 350 Modbus slave device receives a transmission in which an error is indicated by the CRC-16 calculation, the slave device will not respond to the transmission. A CRC-16 error...
Page 151: Timing
3.5 x 1 / 9600 x 10 = 3.65ms will cause the communication link to be reset. 350 supported functions The following functions are supported by the 350 : • FUNCTION CODE 03H - Read Setpoints •...
Page 152 MODBUS PROTOCOL CHAPTER 6: USB INTERFACE 6–4 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 153: Iec 1588 Precision Time Protocol (Ptp)
Power profile (IEEE Std C37.238™ 2011) requires that the relay selects as a grandmaster: • only power profile compliant clocks that the delivered time has a worst-case error of ±1 μs • 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 7–1...
Page 154 The setting applies to all of the relay’s PTP-capable ports PTP EPOCH Range: UTC since 1995, UTC since 1900, UTC since 1970, TAI since 1970 Default: UTC since 1995 The setting selects the origin of the time scale. 7–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 155 Comm Boot Code Rev 0xFFFF 30068 FPGA Rev 0xFFFF 30135 Main Boot Code Date 30141 Main Boot Code Time 30145 Comm Boot Code Date 30151 Comm Boot Code Time REAL-TIME CLOCK 30223 Weekday None 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–1...
Page 156 °Lag 30352 Vaux Angle ° 30353 Vab Angle ° 30354 Vbc Angle ° 30355 Vca Angle ° VOLTAGE METERING 30358 65535 30359 65535 30360 65535 30361 Average Line Voltage 65535 30362 65535 8–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 157 User Map Value 1 0xFFFF 30525 User Map Value 2 0xFFFF 30526 User Map Value 3 0xFFFF 30527 User Map Value 4 0xFFFF 30528 User Map Value 5 0xFFFF 30529 User Map Value 6 0xFFFF 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–3...
Page 158 User Map Value 47 0xFFFF 30571 User Map Value 48 0xFFFF 30572 User Map Value 49 0xFFFF 30573 User Map Value 50 0xFFFF 30574 User Map Value 51 0xFFFF 30575 User Map Value 52 0xFFFF 8–4 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 159 User Map Value 93 0xFFFF 30617 User Map Value 94 0xFFFF 30618 User Map Value 95 0xFFFF 30619 User Map Value 96 0xFFFF 30620 User Map Value 97 0xFFFF 30621 User Map Value 98 0xFFFF 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–5...
Page 160 30669 1200000 30671 1200000 30673 1200000 30675 Ia Angle ° 30676 Ib Angle ° 30677 Ic Angle ° 30678 Igrnd Angle ° 30679 In Angle ° 30680 65535 30681 65535 30682 65535 8–6 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 161 Sample 5 30725 Sample Index + Trace Memory -32767 32767 Sample 6 30726 Sample Index + Trace Memory -32767 32767 Sample 7 30727 Sample Index + Trace Memory -32767 32767 Sample 8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–7...
Page 162 Sample 33 30753 Sample Index + Trace Memory -32767 32767 Sample 34 30754 Sample Index + Trace Memory -32767 32767 Sample 35 30755 Sample Index + Trace Memory -32767 32767 Sample 36 8–8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 163 Sample 61 30781 Sample Index + Trace Memory -32767 32767 Sample 62 30782 Sample Index + Trace Memory -32767 32767 Sample 63 30783 Sample Index + Trace Memory -32767 32767 Sample 64 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–9...
Page 164 Sample 89 30809 Sample Index + Trace Memory -32767 32767 Sample 90 30810 Sample Index + Trace Memory -32767 32767 Sample 91 30811 Sample Index + Trace Memory -32767 32767 Sample 92 8–10 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 165 Sample 117 30837 Sample Index + Trace Memory -32767 32767 Sample 118 30838 Sample Index + Trace Memory -32767 32767 Sample 119 30839 Sample Index + Trace Memory -32767 32767 Sample 120 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–11...
Page 166 Trip Phase C Status 2 65535 FC134 PHASE TOC1 TRIP STATUS 31527 Trip Phase A Status 3 65535 FC134 31528 Trip Phase B Status 3 65535 FC134 31529 Trip Phase C Status 3 65535 FC134 8–12 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 167 PRP HSR Version 32149 Independent Version 32157 PRP total sent Port A 0xFFFFFFFF 32159 PRP total sent Port B 0xFFFFFFFF 32161 PRP total errors Port A 0xFFFFFFFF 32163 PRP total errors Port B 0xFFFFFFFF 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–13...
Page 168 40235 DST Start Month FC169 40236 DST Start Week FC170 40237 DST Start Weekday FC171 40238 DST End Month FC169 40239 DST End Week FC170 40240 DST End Weekday FC171 REMOTE INPUTS 8–14 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 169 40543 User Map Address 20 30001 39999 30976 40544 User Map Address 21 30001 39999 30977 40545 User Map Address 22 30001 39999 30974 40546 User Map Address 23 30001 39999 30975 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–15...
Page 170 40589 User Map Address 66 30001 39999 30001 40590 User Map Address 67 30001 39999 30001 40591 User Map Address 68 30001 39999 30001 40592 User Map Address 69 30001 39999 30001 8–16 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 171 40635 User Map Address 112 30001 39999 30001 40636 User Map Address 113 30001 39999 30001 40637 User Map Address 114 30001 39999 30001 40638 User Map Address 115 30001 39999 30001 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–17...
Page 172 Thermal O/L Curve FC236 TEMPERATURE 40820 Enable Ambient Temp FC206 40821 HI Alarm Level °C 40822 Low Alarm Level °C 40823 Hysteresis Level °C 40824 Time Delay 40825 Output Relays 0x7F FC198 8–18 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 173 LOGIC ELEMENTS (TRIGGERS & BLOCKS) 41139 LE3 Trigger Logic FC149 41140 LE3 Block Logic FC149 LOGIC ELEMENTS 41142 Timer 4 Pickup Delay 60000 41143 Timer 4 Dropout Delay 60000 41144 LE 4 Function FC205 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–19...
Page 174 LE8 Trigger Logic FC149 41180 LE8 Block Logic FC149 LOGIC ELEMENTS 41182 Timer 9 Pickup Delay 60000 41183 Timer 9 Dropout Delay 60000 41184 LE 9 Function FC205 41185 LE 9 Asserted FC103 8–20 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 175 LE13 Block Logic FC149 LOGIC ELEMENTS 41222 Timer 14 Pickup Delay 60000 41223 Timer 14 Dropout Delay 60000 41224 LE 14 Function FC205 41225 LE 14 Asserted FC103 41226 LE 14 Relays 0x7F FC198 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–21...
Page 176 Input 3 Debounce Interval 41459 Input 4 Debounce Interval 41460 Input 5 Debounce Interval 41461 Input 6 Debounce Interval 41462 Input 7 Debounce Interval 41463 Input 8 Debounce Interval 41465 Select DC Voltage FC123 8–22 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 177 BLOCK GND IOC1 FC103A 0 42232 BLOCK GND IOC2 FC103A 0 42233 BLOCK NTRL IOC1 FC103A 0 42234 BLOCK NTRL IOC2 FC103A 0 42235 RAISE PH TOC PKP 42236 RAISE GND TOC PKP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–23...
Page 178 42294 Flex Curve A 2.50 X PU 65535 42295 Flex Curve A 2.60 X PU 65535 42296 Flex Curve A 2.70 X PU 65535 42297 Flex Curve A 2.80 X PU 65535 8–24 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 179 42340 Flex Curve A 11.50 X PU 65535 42341 Flex Curve A 12.00 X PU 65535 42342 Flex Curve A 12.50 X PU 65535 42343 Flex Curve A 13.00 X PU 65535 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–25...
Page 180 42407 Flex Curve B 3.60 X PU 65535 42408 Flex Curve B 3.70 X PU 65535 42409 Flex Curve B 3.80 X PU 65535 42410 Flex Curve B 3.90 X PU 65535 8–26 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 181 42453 Flex Curve B 17.00 X PU 65535 42454 Flex Curve B 17.50 X PU 65535 42455 Flex Curve B 18.00 X PU 65535 42456 Flex Curve B 18.50 X PU 65535 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–27...
Page 182 Sensitive Ground Time OC Curve 42550 Sensitive Ground Time OC Mult 2000 42551 Sensitive Ground Time OC Reset 42552 Neutral Directional Function FC207 42553 NTRL DIR POLARZNG 42554 Neutral Directional MTA °Lead 8–28 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 183 Sensitive Ground Inst OC Delay 30000 42601 Sensitive Ground2 Inst OC Function 0 FC197 42602 Sensitive Ground2 Inst OC Pickup 3000 x CT F17A 1000 42603 Sensitive Ground2 Inst OC Delay 30000 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–29...
Page 184 Neutral OV Block 1 0x1DF 42690 Neutral OV Block 2 0x1DF 42691 Neutral OV Block 3 0x1DF 42692 Phase OV Block 1 0x1DF 42693 Phase OV Block 2 0x1DF 42694 Phase OV Block 3 0x1DF 8–30 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 185 51N TOC Relays 0x7F FC198 42742 51G TOC Relays 0x7F FC198 42743 50P IOC 2 Relays 0x7F FC198 42744 50N IOC 2 Relays 0x7F FC198 42745 50G IOC 2 Relays 0x7F FC198 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–31...
Page 186 Virtual Input Name 18 Virtual IN 43046 Virtual Input Name 19 Virtual IN 43055 Virtual Input Name 20 Virtual IN 43064 Virtual Input Name 21 Virtual IN 43073 Virtual Input Name 22 Virtual IN 8–32 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 187 43495 LE 5 Trigger 2 0xFFFF FC134C 0 43496 LE 5 Trigger 3 0xFFFF FC134C 0 43497 LE 5 Block 1 0xFFFF FC134C 0 43498 LE 5 Block 2 0xFFFF FC134C 0 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–33...
Page 188 43851 DNP Address 65519 43852 DNP Client Address 1 0xFFFFFFFF FC150 43854 DNP Client Address 2 0xFFFFFFFF FC150 43856 DNP Client Address 3 0xFFFFFFFF FC150 43858 DNP Client Address 4 0xFFFFFFFF FC150 8–34 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 189 Binary Input Point 24 Entry 0xFFFF FC134B 0 43903 Binary Input Point 25 Entry 0xFFFF FC134B 0 43904 Binary Input Point 26 Entry 0xFFFF FC134B 0 43905 Binary Input Point 27 Entry 0xFFFF FC134B 0 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–35...
Page 190 Analog Input Point 1 Scale Factor 43948 Analog Input Point 1 Deadband 100000000 30000 43950 Analog Input Point 2 Entry 43951 Analog Input Point 2 Scale Factor 43952 Analog Input Point 2 Deadband 100000000 30000 8–36 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 191 Analog Input Point 16 Deadband 100000000 30000 44010 Analog Input Point 17 Entry 44011 Analog Input Point 17 Scale Factor 44012 Analog Input Point 17 Deadband 100000000 30000 44014 Analog Input Point 18 Entry 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–37...
Page 192 Analog Input Point 31 Deadband 100000000 30000 DNP / IEC60870-5-104 BINARY OUTPUTS 44070 Binary Output Point 0 ON 44071 Binary Output Point 0 OFF 44072 Binary Output Point 1 ON 44073 Binary Output Point 1 OFF 8–38 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 193 PH IOC1 INITIATE FC103 44121 1018 PH IOC2 INITIATE FC103 44122 1019 NTRL IOC1 INITIATE FC103 44123 101A NTRL IOC2 INITIATE FC103 44124 101B GND IOC1 INITIATE FC103 44125 101C GND IOC2 INITIATE FC103 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–39...
Page 194 44170 1049 SG TOC SHOT2 FC103 44171 104A BLOCK NEG SEQ IOC FC103 AUTORECLOSE 44172 104B NEG SEQ TOC SHOT2 FC103 AUTORECLOSE SHOT 3 44179 1052 PH IOC1 SHOT 3 INIT FC103 8–40 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 195 Binary In Point 0 Entry Information Number 44223 107E Binary In Point 1 Entry Function Type 44224 107F Binary In Point 1 Entry Information Number 44225 1080 Binary In Point 2 Entry Function Type 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–41...
Page 196 Binary In Point 14 Entry Information Number 44251 109A Binary In Point 15 Entry Function Type 44252 109B Binary In Point 15 Entry Information Number 44253 109C Binary In Point 16 Entry Function Type 8–42 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 197 Binary In Point 28 Entry Information Number 44279 10B6 Binary In Point 29 Entry Function Type 44280 10B7 Binary In Point 29 Entry Information Number 44281 10B8 Binary In Point 30 Entry Function Type 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–43...
Page 198 Binary In Point 42 Entry Information Number 44307 10D2 Binary In Point 43 Entry Function Type 44308 10D3 Binary In Point 43 Entry Information Number 44309 10D4 Binary In Point 44 Entry Function Type 8–44 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 199 Binary In Point 56 Entry Information Number 44335 10EE Binary In Point 57 Entry Function Type 44336 10EF Binary In Point 57 Entry Information Number 44337 10F0 Binary In Point 58 Entry Function Type 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–45...
Page 200 Binary Out Point 6 Entry Function Type 44362 1109 Binary Out Point 6 Entry Information Number 44363 110A Binary Out Point 7 Entry Function Type 44364 110B Binary Out Point 7 Entry Information Number 8–46 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 201 103 First ASDU Second Analogue 0xFFFF Factor 44393 1128 103 First ASDU Second Analogue 0xFFFF Offset 44394 1129 103 First ASDU Third Analogue Entry 0 44395 112A 103 First ASDU Third Analogue 0xFFFF Factor 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–47...
Page 202 103 Second ASDU Second Analogue Entry 44423 1146 103 Second ASDU Second Analogue 0xFFFF Factor 44424 1147 103 Second ASDU Second Analogue 0xFFFF Offset 44425 1148 103 Second ASDU Third Analogue Entry 8–48 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 203 103 Third ASDU First Analogue 0xFFFF Offset 44453 1164 103 Third ASDU Second Analogue Entry 44454 1165 103 Third ASDU Second Analogue 0xFFFF Factor 44455 1166 103 Third ASDU Second Analogue 0xFFFF Offset 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–49...
Page 204 103 Fourth ASDU First Analogue 0xFFFF Factor 44483 1182 103 Fourth ASDU First Analogue 0xFFFF Offset 44484 1183 103 Fourth ASDU Second Analogue Entry 44485 1184 103 Fourth ASDU Second Analogue 0xFFFF Factor 8–50 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 205 Sec Passcode Master 5 44541 11BC Sec Passcode Local SP 1 44542 11BD Sec Passcode Local SP 2 44543 11BE Sec Passcode Local SP 3 44544 11BF Sec Passcode Local SP 4 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–51...
Page 206 Virtual Input 9 Function FC126 44589 11EC Virtual Input 10 Function FC126 44590 11ED Virtual Input 11 Function FC126 44591 11EE Virtual Input 12 Function FC126 44592 11EF Virtual Input 13 Function FC126 8–52 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 207 Virtual Input 22 Type FC199 44634 1219 Virtual Input 23 Type FC199 44635 121A Virtual Input 24 Type FC199 44636 121B Virtual Input 25 Type FC199 44637 121C Virtual Input 26 Type FC199 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–53...
Page 208 DATASET ITEM 11 0xFFFF FC134B 0 44739 1282 ITEM 11 QUALITY FC126 44740 1283 DATASET ITEM 12 0xFFFF FC134B 0 44741 1284 ITEM 12 QUALITY FC126 44742 1285 DATASET ITEM 13 0xFFFF FC134B 0 8–54 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 209 FC134B 0 44781 12AC ITEM 32 QUALITY FC126 IEC61850 GOOSE RX1 CONFIGURATION 44786 12B1 RX GOOSE1 FUNCTION FC126 44787 12B2 RX GOOSE1 ID DEVICE_IE D2_GOOSE 44807 12C6 INCOMING DS NAME DEVICE/ LLN0$GOO SESR3 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–55...
Page 210 FC126 45051 13BA RX GOOSE5 ID DEVICE_IE D2_GOOSE 45071 13CE INCOMING DS NAME DEVICE/ LLN0$GOO SESR3 45091 13E2 RX5 CTRL BLCK NAME DEVICE/ LLN0$GO$ gcb05 45111 13F6 RX5 DS CONFIG REV 0xFFFF 8–56 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 211 RI 2 45604 15E3 RI 2 GOOSE SOURCE 0x80 FC219 45605 15E4 RI 2 ITEM SOURCE 0xFFFF FC217 45606 15E5 RI 2 ITEM MASK 0xFFFF FC218 45607 15E6 RI 2 DFLT STATE FC220 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–57...
Page 212 RI 11 GOOSE SOURCE 0x80 45794 16A1 RI 11 ITEM SOURCE 0xFFFF FC217 45795 16A2 RI 11 ITEM MASK 0xFFFF FC218 45796 16A3 RI 11 DFLT STATE FC220 45798 16A5 RI 12 NAME RI 12 8–58 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 213 RI 20 ITEM SOURCE 0xFFFF FC217 45984 175F RI 20 ITEM MASK 0xFFFF FC218 45985 1760 RI 20 DFLT STATE FC220 45987 1762 RI 21 NAME RI 21 46003 1772 RI 21 GOOSE SOURCE 0x80 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–59...
Page 214 RI 29 ITEM MASK 0xFFFF FC218 46174 181D RI 29 DFLT STATE FC220 46176 181F RI 30 NAME RI 30 46192 182F RI 30 GOOSE SOURCE 0x80 46193 1830 RI 30 ITEM SOURCE 0xFFFF FC217 8–60 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 215 LE 12 Trigger 3 0xFFFF FC134C 0 46386 18F1 LE 12 Block 1 0xFFFF FC134C 0 46387 18F2 LE 12 Block 2 0xFFFF FC134C 0 46388 18F3 LE 12 Block 3 0xFFFF FC134C 0 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–61...
Page 216 1A51 Dead bus voltage level 46739 1A52 Live bus voltage level 46740 1A53 Dead line voltage level 46741 1A54 Live line voltage level 46742 1A55 Voltage Difference 46743 1A56 Angle Difference º 8–62 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 217 Places Example: -12.34 stored as -1234 i.e. 64302 unsigned 32 bits Unsigned Long Value 1st 16 bits High Order Word of Long Value 2nd 16 bits Low Order Word of Long Value 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–63...
Page 218 High Order Word of Long Value 2nd 16 bits Low Order Word of Long Value Example: -12345.6 stored as -123456 i.e. 1st word: FFFE hex, 2nd word: 1DC0 hex unsigned 16 bits Hardware Revision Prototype 8–64 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 219 Moderately Inverse Definite Time IEC Curve A IEC Curve B IEC Curve C Flex Curve A Flex Curve B IAC Extr. Inverse IAC Very Inverse IAC Inverse IAC Short Inverse IEC Short Inverse 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–65...
Page 220 DNP Object 30 Default Variation unsigned 16 bits DNP Object 32 Default Variation unsigned 16 bits DNP Analog Input Point Scale Factor / 0.001 / 0.01 / 0.1 / 10 / 100 / 1000 8–66 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 221 Virtual Input 31 Virtual Input 32 FC: Reset FC: Open Breaker FC: Close Breaker FC: Display Msg unsigned 16 bits DNP/Ethernet Channel Port None unsigned 16 bits Analog Values Disabled Phase A Current 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–67...
Page 222 0x45 Contact Input 6 0x46 Contact Input 7 0x47 Contact Input 8 0x48 Contact Input 9 0x49 Contact Input 10 0x80 Virtual Input 1 0x81 Virtual Input 2 0x82 Virtual Input 3 8–68 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 223 0xCA Logic Element 11 0xCB Logic Element 12 0xCC Logic Element 13 0xCD Logic Element 14 0xCE Logic Element 15 0xCF Logic Element 16 0x1C0 Remote Input 1 0x1C1 Remote Input 2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–69...
Page 224 All Three unsigned 16 bits Phase UV Curve Definite Time Inverse Time unsigned 16 bits Transient Recorder Buffer 1 x 192 3 x 64 6 x 32 unsigned 16 bits Directional Polarizing Voltage 8–70 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 225 Voltage Transformer Connection Type Delta FC107 unsigned 16 bits Supply Frequency FC108 unsigned 16 bits 61850 Status Not Ready Ready Default CID FC109 unsigned 16 bits Flex Logic Status FC111 unsigned 16 bits Trip Relays 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–71...
Page 226 Comm Fail Mode FC133 unsigned 16 bits Cause of Waveform Trigger None Command 0x00C0 VO 1 0x00C1 VO 2 0x00C2 VO 3 0x00C3 VO 4 0x00C4 VO 5 0x00C5 VO 6 0x00C6 VO 7 8–72 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 227 Comm. Alert 2 Comm. Alert 3 Ethernet Link Fail High ENET Traffic Ambient Temp. >80C Trace Mem. Trigger Rx Goose 1 ON Rx Goose 1 OFF Rx Goose 2 ON Rx Goose 2 OFF 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–73...
Page 228 Virtual IN 9 On 0x0089 Virtual IN 10 On 0x008A Virtual IN 11 On 0x008B Virtual IN 12 On 0x008C Virtual IN 13 On 0x008D Virtual IN 14 On 0x008E Virtual IN 15 On 8–74 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 229 Virtual IN 24 Off 0x00B8 Virtual IN 25 Off 0x00B9 Virtual IN 26 Off 0x00BA Virtual IN 27 Off 0x00BB Virtual IN 28 Off 0x00BC Virtual IN 29 Off 0x00BD Virtual IN 30 Off 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–75...
Page 230 Remote IN 7 Off 0x01E7 Remote IN 8 Off 0x01E8 Remote IN 9 Off 0x01E9 Remote IN 10 Off 0x01EA Remote IN 11 Off 0x01EB Remote IN 12 Off 0x01EC Remote IN 13 Off 8–76 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 231 LE 4 Trip PKP 0x8582 LE 4 Trip OP 0x8584 LE 4 Trip DPO 0x85C1 LE 5 Trip PKP 0x85C2 LE 5 Trip OP 0x85C4 LE 5 Trip DPO 0x8601 LE 6 Trip PKP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–77...
Page 232 Ph C TOC1 Trip DPO 0x9101 Ntrl TOC1 Trip PKP 0x9102 Ntrl TOC1 Trip OP 0x9104 Ntrl TOC1 Trip DPO 0x9141 Gnd TOC1 Trip PKP 0x9142 Gnd TOC1 Trip OP 0x9144 Gnd TOC1 Trip DPO 8–78 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 233 Ph UV1 Trip DPO 0x9489 Ph A UV1 Trip PKP 0x948A Ph A UV1 Trip OP 0x948C Ph A UV1 Trip DPO 0x9491 Ph B UV1 Trip PKP 0x9492 Ph B UV1 Trip OP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–79...
Page 234 LE 12 Trip PKP 0x9CC2 LE 12 Trip OP 0x9CC4 LE 12 Trip DPO 0x9D01 LE 13 Trip PKP 0x9D02 LE 13 Trip OP 0x9D04 LE 13 Trip DPO 0x9D41 LE 14 Trip PKP 8–80 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 235 LE 8 Alarm OP 0xA684 LE 8 Alarm DPO 0xABC1 HI Amb Temp PKP 0xABC2 HI Amb Temp OP 0xABC4 HI Amb Temp DPO 0xAC01 LO Amb Temp PKP 0xAC02 LO Amb Temp OP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–81...
Page 236 Ph A TOC1 Alrm OP 0xB0CC Ph A TOC1 Alrm DPO 0xB0D1 Ph B TOC1 Alrm PKP 0xB0D2 Ph B TOC1 Alrm OP 0xB0D4 Ph B TOC1 Alrm DPO 0xB0E1 Ph C TOC1 Alrm PKP 8–82 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 237 Ph OV1 Alarm DPO 0xB449 Ph A OV1 Alarm PKP 0xB44A Ph A OV1 Alarm OP 0xB44C Ph A OV1 Alarm DPO 0xB451 Ph B OV1 Alarm PKP 0xB452 Ph B OV1 Alarm OP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–83...
Page 238 NSeq IOC Alrm PKP 0xB6C2 NSeq IOC Alrm OP 0xB6C4 NSeq IOC Alrm DPO 0xB889 Ph A OV2 Alarm PKP 0xBC01 LE 9 Alarm PKP 0xBC02 LE 9 Alarm OP 0xBC04 LE 9 Alarm DPO 8–84 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 239 0xBE51 PhBDir UndAlm PKP 0xBE52 PhBDir UndAlm OP 0xBE54 PhBDir UndAlm DPO 0xBE61 PhCDir UndAlm PKP 0xBE62 PhCDir UndAlm OP 0xBE64 PhCDir UndAlm DPO 0xBE81 GndDir UndAlm PKP 0xBE82 GndDir UndAlm OP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–85...
Page 240 LE 8 OP 0xC684 LE 8 DPO 0xC882 Setpoint Group2 On 0xC902 Open Breaker 0xC942 Close Breaker 0xC982 Maint. Req. OP 0xCA02 52a Contact OP 0xCA42 52b Contact OP 0xCA44 52b Contact DPO 8–86 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 241 0xD204 Gnd IOC2 DPO 0xD342 Ntrl Dir Rev OP 0xD344 Ntrl Dir Rev DPO 0xD382 Gnd Dir Rev OP 0xD384 Gnd Dir Rev DPO 0xD3C1 NegSeq OV PKP 0xD3C2 NegSeq OV OP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–87...
Page 242 0xDE04 PhDir Rev DPO 0xDE09 PhADir Rev PKP 0xDE0A PhADir Rev OP 0xDE0C PhADir Rev DPO 0xDE11 PhBDir Rev PKP 0xDE12 PhBDir Rev OP 0xDE14 PhBDir Rev DPO 0xDE21 PhCDir Rev PKP 8–88 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 243 CLP GndIOC1 BLKDPO 0xEFC2 CLP GndIOC2 BLK 0xEFC4 CLP GndIOC2 BLKDPO 0xF002 Ph IOC1 Block 0xF004 Ph IOC1 Block DPO 0xF042 Ntrl IOC1 Block 0xF044 Ntrl IOC1 Blk DPO 0xF082 Gnd IOC1 Block 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–89...
Page 244 SGnd IOC1 Block 0xF644 SGnd IOC1 Blk DPO 0xF682 SGnd IOC2 Block 0xF684 SGnd IOC2 Blk DPO 0xF6C2 NSeq IOC Block 0xF6C4 NSeq IOC Block DPO 0xFE01 PhDir Block PKP 0xFE02 PhDir Block OP 8–90 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 245 0x9140 Gnd TOC1 Trip 0x9180 Ph IOC2 Trip 0x91C0 Ntrl IOC2 Trip 0x9200 Gnd IOC2 Trip 0x9240 Ph TOC2 Trip 0x9280 Ntrl TOC2 Trip 0x92C0 Gnd TOC2 Trip 0x9300 SGnd TOC1 Trip 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–91...
Page 246 Rly1 Coil Mn Alrm 0xAD40 Rly2 Coil Mn Alrm 0xAD80 BKR Fail Alrm 0xADC0 BKRStatus Fail 0xAE40 CLP Alarm 0xAF80 Fuse Fail Alrm 0xB000 Ph IOC1 Alarm 0xB040 Ntrl IOC1 Alarm 0xB080 Gnd IOC1 Alarm 8–92 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 247 PhDir UndAlm 0xBE80 GndDir UndAlm 0xBEC0 NtrlDir UndAlm 0xC302 Synchrocheck OP 0xC342 Synchrocheck Close OP 0xC382 Synchrocheck Condition 0xC4C0 LE 1 0xC500 LE 2 0xC540 LE 3 0xC580 LE 4 0xC5C0 LE 5 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–93...
Page 248 0xE1C0 Output Relay 2 BLK 0xE880 Group Change Blk 0xEB00 AR Block 0xEE80 CLP Ph IOC1 BLK 0xEEC0 CLP Ph IOC2 BLK 0xEF00 CLPNtrlIOC1 BLK 0xEF40 CLPNtrlIOC2 BLK 0xEF80 CLP GndIOC1 BLK 8–94 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 249 DNP Binary Inputs 0x0040 Contact IN 1 On 0x0041 Contact IN 2 On 0x0042 Contact IN 3 On 0x0043 Contact IN 4 On 0x0044 Contact IN 5 On 0x0045 Contact IN 6 On 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–95...
Page 250 Virtual IN 27 On 0x009B Virtual IN 28 On 0x009C Virtual IN 29 On 0x009D Virtual IN 30 On 0x009E Virtual IN 31 On 0x009F Virtual IN 32 On 0x01C0 Remote IN 1 On 8–96 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 251 Remote IN 10 Off 0x01EA Remote IN 11 Off 0x01EB Remote IN 12 Off 0x01EC Remote IN 13 Off 0x01ED Remote IN 14 Off 0x01EE Remote IN 15 Off 0x01EF Remote IN 16 Off 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–97...
Page 252 LE 6 Trip PKP 0x8602 LE 6 Trip OP 0x8604 LE 6 Trip DPO 0x8641 LE 7 Trip PKP 0x8642 LE 7 Trip OP 0x8644 LE 7 Trip DPO 0x8681 LE 8 Trip PKP 8–98 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 253 Ph IOC2 Trip OP 0x9184 Ph IOC2 Trip DPO 0x9189 Ph A IOC2 Trip PKP 0x918A Ph A IOC2 Trip OP 0x918C Ph A IOC2 Trip DPO 0x9191 Ph B IOC2 Trip PKP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–99...
Page 254 Ph C UV1 Trip PKP 0x94A2 Ph C UV1 Trip OP 0x94A4 Ph C UV1 Trip DPO 0x94C1 Aux OV Trip PKP 0x94C2 Aux OV Trip OP 0x94C4 Aux OV Trip DPO 8–100 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 255 LE 14 Trip PKP 0x9D42 LE 14 Trip OP 0x9D44 LE 14 Trip DPO 0x9D81 LE 15 Trip PKP 0x9D82 LE 15 Trip OP 0x9D84 LE 15 Trip DPO 0x9DC1 LE 16 Trip PKP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–101...
Page 256 LO Amb Temp OP 0xAC04 LO Amb Temp DPO 0xAC42 Self Test Alarm OP 0xACC2 BKRTrpCntrAlrm OP 0xAD02 R1 CoilMonAlrm OP 0xAD42 R2 CoilMonAlrm OP 0xAD81 BKR1 Fail Alrm PKP 0xAD82 BKR1 Fail Alrm OP 8–102 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 257 Gnd TOC1 Alarm PKP 0xB142 Gnd TOC1 Alarm OP 0xB144 Gnd TOC1 Alarm DPO 0xB181 Ph IOC2 Alarm PKP 0xB182 Ph IOC2 Alarm OP 0xB184 Ph IOC2 Alarm DPO 0xB189 Ph A IOC2 Alrm PKP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–103...
Page 258 Ph UV1 Alarm DPO 0xB489 Ph A UV1 Alarm PKP 0xB48A Ph A UV1 Alarm OP 0xB48C Ph A UV1 Alarm DPO 0xB491 Ph B UV1 Alarm PKP 0xB492 Ph B UV1 Alarm OP 8–104 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 259 LE 12 Alarm PKP 0xBCC2 LE 12 Alarm OP 0xBCC4 LE 12 Alarm DPO 0xBD01 LE 13 Alarm PKP 0xBD02 LE 13 Alarm OP 0xBD04 LE 13 Alarm DPO 0xBD41 LE 14 Alarm PKP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–105...
Page 260 Output Relay 4 On 0xC0C2 Output Relay 5 On 0xC102 Output Relay 6 On 0xC142 Self-Test Rly 7 On 0xC182 Output Relay 1 On 0xC1C2 Output Relay 2 On 0xC202 BKR Connected 0xC302 Synchrocheck OP 8–106 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 261 AR In Progress PKP 0xCB82 AR In Progress 0xCB84 AR In Progress DPO 0xCBC1 AR Disabled PKP 0xCBC2 AR Disabled 0xCBC4 AR Disabled DPO 0xCC02 AR Ext. Init 0xCC41 AR Ready PKP 0xCC42 AR Ready 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–107...
Page 262 0xDDC4 LE 16 DPO 0xDE01 PhDir Rev PKP 0xDE02 PhDir Rev OP 0xDE04 PhDir Rev DPO 0xDE09 PhADir Rev PKP 0xDE0A PhADir Rev OP 0xDE0C PhADir Rev DPO 0xDE11 PhBDir Rev PKP 8–108 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 263 Ntrl TOC1 Block 0xF142 Gnd TOC1 Block 0xF182 Ph IOC2 Block 0xF1C2 Ntrl IOC2 Block 0xF202 Gnd IOC2 Block 0xF302 SGnd TOC1 Block 0xF342 NTRL DIR Rev Block 0xF382 Gnd Dir Block 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–109...
Page 264 Contact IN 1 Off 0x0061 Contact IN 2 Off 0x0062 Contact IN 3 Off 0x0063 Contact IN 4 Off 0x0064 Contact IN 5 Off 0x0065 Contact IN 6 Off 0x0066 Contact IN 7 Off 8–110 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 265 Virtual IN 6 Off 0x00A6 Virtual IN 7 Off 0x00A7 Virtual IN 8 Off 0x00A8 Virtual IN 9 Off 0x00A9 Virtual IN 10 Off 0x00AA Virtual IN 11 Off 0x00AB Virtual IN 12 Off 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–111...
Page 266 Remote IN 21 On 0x01D5 Remote IN 22 On 0x01D6 Remote IN 23 On 0x01D7 Remote IN 24 On 0x01D8 Remote IN 25 On 0x01D9 Remote IN 26 On 0x01DA Remote IN 27 On 8–112 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 267 Fuse Fail Trip DPO 0x96C1 NegSeq IOC Trp PKP 0x96C2 NegSeq IOC Trp OP 0x96C4 NegSeq IOC Trp DPO 0x9C01 LE 9 Trip PKP 0x9C02 LE 9 Trip OP 0x9C04 LE 9 Trip DPO 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–113...
Page 268 LE 9 Alarm DPO 0xBC41 LE 10 Alarm PKP 0xBC42 LE 10 Alarm OP 0xBC44 LE 10 Alarm DPO 0xBC81 LE 11 Alarm PKP 0xBC82 LE 11 Alarm OP 0xBC84 LE 11 Alarm DPO 8–114 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 269 PhCDir UndAlm DPO 0xBE81 GndDir UndAlm PKP 0xBE82 GndDir UndAlm OP 0xBE84 GndDir UndAlm DPO 0xBEC1 NtrlDir UndAlm PKP 0xBEC2 NtrlDir UndAlm OP 0xBEC4 NtrlDir UndAlm DPO 0xC302 Synchrocheck OP 0xC342 Synchrocheck Close OP 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–115...
Page 270 0xDD44 LE 14 DPO 0xDD81 LE 15 PKP 0xDD82 LE 15 OP 0xDD84 LE 15 DPO 0xDDC1 LE 16 PKP 0xDDC2 LE 16 OP 0xDDC4 LE 16 DPO 0xDE01 PhDir Rev PKP 8–116 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 271 PhDir Und Blk DPO 0xFE81 GndDir Und Blk PKP 0xFE82 GndDir Und Blk OP 0xFE84 GndDir Und Blk DPO 0xFEC1 NtrlDir Und Blk PKP 0xFEC2 NtrlDir Und Blk OP 0xFEC4 NtrlDir Und Blk DPO 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–117...
Page 272 16 bits DeviceNet Baud Rate FC157 unsigned 16 bits LED Colour Green Orange FC167 unsigned 32 bits Contact/Virtual Input/Output Status 0x00000001 Input/Output 1 0x00000002 Input/Output 2 0x00000004 Input/Output 3 0x00000008 Input/Output 4 8–118 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 273 32 bits Contact/Virtual Input/Output Status FC169 unsigned 16 bits Month Not Set January February March April June July August September October November December FC170 unsigned 16 bits Count of Week Not Set 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–119...
Page 274 BKR Status Failure 0x02000000 CLP Alarm 0x40000000 Fuse Fail Alrm FC181 unsigned 32 bits Alarm Status 3 0x00000001 Ph IOC1 Alarm 0x00000002 Neutral IOC1 Alarm 0x00000004 Ground IOC1 Alarm 0x00000008 Phase TOC1 Alarm 8–120 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 275 LE 8 Trip FC184 unsigned 32 bits Trip Status 2 0x40000000 Fuse Fail Trip FC185 unsigned 32 bits Trip Status 3 0x00000001 Ph IOC1 Trip 0x00000002 Neutral IOC1 Trip 0x00000004 Ground IOC1 Trip 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–121...
Page 276 0x00004000 Ethernet Link Fail 0x00008000 High ENET Traffic 0x00010000 Ambient Temp. >80C FC188 unsigned 32 bits Message Status 2 0x0001 Order Code Error 0x0002 Clock Error 0x0004 Calibration Error 0x0008 EEPROM Error 8–122 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 277 Fuse Fail Inhibit FC193 unsigned 32 bits Ctrl Status 3 0x00002000 NTRL Dir. FC194 unsigned 32 bits Ctrl Status 4 0x00010000 Logic Element 9 0x00020000 Logic Element 10 0x00040000 Logic Element 11 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–123...
Page 278 Ground TOC1 Block 0x00000040 Ph IOC2 Block 0x00000080 Neutral IOC2 Block 0x00000100 Ground IOC2 Block 0x00001000 SGnd TOC1 0x00002000 NTRL DIR Rev Block 0x00008000 Neg Seq OV Block 0x00010000 Neutral OV Block 8–124 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 279 Disabled Alarm Latched Alarm FC207 unsigned 16 bits Element Type 3 Disabled Alarm Latched Alarm Control FC208 unsigned 16 bits Relay Operation (Failsafe, Non-Failsafe) FC212 unsigned 16 bits LCD Test Paint Color 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–125...
Page 280 FC218 unsigned 16 bits Remote Input Item Mask FC219 unsigned 32 bits GOOSE Source 0x0000 Disabled 0x0001 0x0002 0x0004 0x0008 0x0010 0x0020 0x0040 0x0080 FC220 unsigned 16 bits Remote Input Default State 8–126 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 281 Internal SNTP Port A IRIGB FC423 unsigned 16 bits Redundancy State Disabled No Signal Calibrating Synchronized FC424 unsigned 16 bits Dead Condition None Dead Line-Dead Bus Live Line-Dead Bus Dead Line-Live Bus 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 8–127...
Page 282 Type Definition Any Line-Dead Bus Dead Line-Any Bus One Live-Other Dead Not Both Live FC425 unsigned 16 bits Epoch type UTC since 1995 UTC since 1900 UTC since 1970 TAI since 1970 8–128 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 283: Function Code 03H
For the 350 implementation of Modbus, this function code can be used to read any setpoints (“holding registers”). Holding registers are 16 bit (two byte) values transmitted high order byte first. Thus all 350 Setpoints are sent as two bytes. The maximum number of registers that can be read in one transmission is 125.
Page 284: Function Code 04H
Modbus Implementation: Read Input Registers 350 implementation: Read Actual Values For the 350 implementation of Modbus, this function code can be used to read any actual values (“input registers”). Input registers are 16 bit (two byte) values transmitted high order byte first.
Page 285: Function Code 05H
1 CODE VALUE FF 00 perform function DF 6A CRC error code The commands that can be performed by the 350 using function code 05 can also be initiated by using function code 10. Operation Code Description Reset Open...
Page 286: Function Code 06H
Modbus Implementation: Preset Single Register 350 Implementation: Store Single Setpoint This command allows the master to store a single setpoint into the memory of a 350 . The slave response to this function code is to echo the entire master transmission.
Page 287: Function Code 08H
Function Code 08H Modbus Implementation: Loopback Test 350 Implementation: Loopback Test This function is used to test the integrity of the communication link. The 350 will echo the request. For example, consider a loopback test from slave 17: Table 9-7: MASTER/SLAVE PACKET FORMAT FOR FUNCTION CODE 08H...
Page 288: Function Code 10H
Modbus allows up to a maximum of 60 holding registers to be stored. The 350 response to this function code is to echo the slave address, function code, starting address, the number of Setpoints stored, and the CRC.
Page 289: Error Responses
Error Responses When a 350 detects an error other than a CRC error, a response will be sent to the master. The MSBit of the FUNCTION CODE byte will be set to 1 (i.e. the function code sent from the slave will be equal to the function code sent from the master plus 128).
Page 290: Performing Commands Using Function Code 10H
Table 9-9: MASTER/SLAVE PACKET FORMAT FOR PERFORMING COMMANDS MASTER TRANSMISSION BYTES EXAMPLE DESCRIPTION SLAVE ADDRESS message for slave 17 FUNCTION CODE store multiple setpoints DATA STARTING ADDRESS 00 80 setpoint address 00 9–8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 291 EXAMPLE DESCRIPTION SLAVE ADDRESS message from slave FUNCTION CODE store multiple setpoints DATA STARTING ADDRESS 00 80 setpoint address 00 NUMBER OF SETPOINTS 00 02 2 setpoints 42 B0 CRC error code 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 9–9...
Page 292 PERFORMING COMMANDS USING FUNCTION CODE 10H CHAPTER 9: MODBUS FUNCTIONS 9–10 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 293: Modbus User Map
Chapter 10: Using the MODBUS User Using the MODBUS User Map 350 relay units incorporate a powerful feature called Modbus User Map, that allows the user to read 125 non-consecutive data records. A master computer will often have to interrogate continuously several connected slave relays.
Page 294 40572 User Map Address 49 30001 43763 30328 40573 User Map Address 50 30001 43763 30329 40574 User Map Address 51 30001 43763 30330 40575 User Map Address 52 30001 43763 30331 10–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 295 40617 User Map Address 94 30001 43763 30001 40618 User Map Address 95 30001 43763 30001 40619 User Map Address 96 30001 43763 30001 40620 User Map Address 97 30001 43763 30001 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 10–3...
Page 296 User Map Value 8 0xFFFF 30532 User Map Value 9 0xFFFF 30533 User Map Value 10 0xFFFF 30534 User Map Value 11 0xFFFF 30535 User Map Value 12 0xFFFF 30536 User Map Value 13 0xFFFF 10–4 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 297 User Map Value 53 0xFFFF 30577 User Map Value 54 0xFFFF 30578 User Map Value 55 0xFFFF 30579 User Map Value 56 0xFFFF 30580 User Map Value 57 0xFFFF 30581 User Map Value 58 0xFFFF 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 10–5...
Page 298 User Map Value 98 0xFFFF 30622 User Map Value 99 0xFFFF 30623 User Map Value 100 0xFFFF 30624 User Map Value 101 0xFFFF 30625 User Map Value 102 0xFFFF 30626 User Map Value 103 0xFFFF 10–6 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 299 User Map Value 120 0xFFFF 30644 User Map Value 121 0xFFFF 30645 User Map Value 122 0xFFFF 30646 User Map Value 123 0xFFFF 30647 User Map Value 124 0xFFFF 30648 User Map Value 125 0xFFFF 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE 10–7...
Page 300 MODBUS USER MAP CHAPTER 10: USING THE MODBUS USER MAP 10–8 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...
Page 301: Warranty
Appendix Warranty For products shipped as of 1 October 2013, GE Digital Energy warrants most of its GE manufactured products for 10 years. For warranty details including any limitations and disclaimers, see the GE Digital Energy Terms and Conditions at https:// www.gedigitalenergy.com/multilin/warranty.htm...
Page 302 CHANGE NOTES Table 2: Major Updates for SR350-AA Page Number CHANGES Chapter 8, 9 Revised memory map and function code General Minor corrections, added change notes 11–2 350 FEEDER PROTECTION SYSTEM – COMMUNICATIONS GUIDE...

GE 350 Communications Manual

2 Rs485 Interface

Electrical Interface

3 Ethernet Interface

4 Sr3 Iec61850 Goose

5 Opc-Ua Communication Standard

6 Usb Interface

7 IEC 1588 Precision Time Protocol (PTP)

MODBUS User Map

Warranty

Quick Links

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Summary of Contents for GE 350

Table of Contents