UBN Universal Power Meter. MODBUS Protocol English 1UNMUP3K1004
|
|
- Theodora Woods
- 5 years ago
- Views:
Transcription
1 Universal Power Meter MODBUS Protocol English 1UNMUP3K1004 Rev
2 Table of contents GENERAL CONTENTS... A CHAPTER 1 INTRODUCTION CHAPTER 2 SYMBOLS CHAPTER 3 DESCRIPTION LRC and CRC generation CHAPTER 4 READ REGISTERS Floating point as per IEEE Standard CHAPTER 5 PARAMETERS SET-UP CHAPTER 6 ERROR MESSAGES FROM SLAVE TO MASTER Error example CHAPTER 7 REGISTERS TABLE Measured values Peak values Min/Max values Harmonics values Time band energy counters Recording download Read-only parameters Write-only parameters Set-up (Read & Write parameters) A Table of contents
3 CHAPTER 8 EXAMPLES Reading of the values of 4 currents Logical number set-up(slave Address) Serial communication Baud Rate set-up Date/Day set-up VT set-up Set-up of Energy value recording Set-up of Sample value recording Downloading of sample recording B Table of contents
4 1. Introduction This Manual provides instructions on how to program the MODBUS transmission protocol. This Manual is not intended for general use, but for qualified technicians. This term indicates a professional and skilled technician, authorised to act in accordance with the safety standards relating to the dangers posed by electric current. This person must also have basic first-aid training and be in possession of suitable Personal Protective Equipment. WARNING! It is strictly forbidden, for anyone who does not have the above-mentioned features, to install or use the device. The device complies with the European Union directives in force, as well as with the technical standards implementing these requirements, as certified by the EC mark on the device and on this Manual. Using the tool for purposes other than intended ones, deducible by the Manual content, is strictly forbidden. The Manufacturer reserves the right to modify the device and/or technical specifications included in this Manual. The Manufacturer shall not shoulder any responsibility for any use of the instrument which is different from that illustrated in this Manual and in the Installation and configuration Manual, or for the lack of/incorrect application of the specified instructions. The information herein contained shall not be shared with third parties. Any duplication of this Manual, either partial or total, not authorised in writing by the Manufacturer and obtained by photocopying, duplicating or any other electronic means, violates the terms of copyright and is punishable by law. 1-1 Introduction
5 The information contained in this Manual was carefully checked at the time of publication. However, the Manufacturer does not accept liability for any inaccuracy, errors, missing updates, and reserves the right to modify the device and / or documentation without prior notice. Any brands quoted in the publication belong to the legitimate registered owners. 1-2 Introduction
6 2. Symbols Some instructions in the Manual and on the device are highlighted by symbols to draw the reader s attention to the operational dangers. The following symbols are used: DANGER! This warning indicates the possible presence of voltage greater than 1kV on the marked terminals (even for short periods). WARNING! This warning indicates the possible occurrence of an event which may cause a serious accident or considerable damage to the device if suitable precautionary countermeasures are not taken. ATTENTION! This warning indicates the possible occurrence of an event which may cause a light accident or damage to the device if suitable precautionary countermeasures are not taken. NOTE This warning indicates important information which must be read carefully. 2-1 Symbols
7 3. Description MODBUS is a master-slave communication protocol, able to support up to 247 slaves arranged in a bus or star network. The data physical link layer can be RS232 for a point-to-point connection or RS485 for a network. Semi-duplex communication is used. Network messages can be of the Query-Response or Broadcast type. The Query-Response command is transmitted by the Master to a single Slave and is generally followed by an answering message. The Broadcast command is transmitted by the Master to all Slaves and it is never followed by an answer. MODBUS uses two transmission modes. 1. ASCII mode: a limited set of characters is used for communication. 2. RTU mode: binary, with time-frame synchronisation, faster than the ASCII Mode; the data block is fifty per cent shorter than the ASCII mode block. During the configuration stage the user must define the transmission mode for all the devices connected with the network. The two abovementioned modes cannot be simultaneously implemented. NOTE The following protocol description refers to the RS485 communication. The Modbus protocol cannot be used on infra red port. STRUCTURE OF A GENERIC MESSAGE: FRAME ADDRESS FUNCTION DATA ERROR FRAME START FIELD CODE FIELD CHECK END FRAME START = Message start marker. ADDRESS FIELD = Device address for Query- Response communication mode. For a Broadcast-type message the address field is 00. FUNCTION CODE = Operation code to be performed. 3-1 Description
8 DATA FIELD = Includes the data field. ERROR CHECK = Error correction code field. FRAME END = End message marker. COMMUNICATION FRAME STRUCTURE ASCII mode: Bit per byte = mode a) 1 Start, 7 Bit, 1 Parity, 1 Stop mode b) 1 Start, 7 Bit, 2 Stop FRAME START = character : (0x3A) ADDRESS FIELD = 2 characters FUNCTION CODE = 2 characters DATA FIELD = 2 x N characters ERROR CHECK = LRC (BCC) 8 bit FRAME END = characters CR LF (0x0D 0x0A) RTU mode: Bit per byte = mode a) 1 Start, 8 Bit, 1 Parity, 1 Stop mode b) 1 Start, 8 Bit, 2 Stop FRAME START = silence on line for time >= 4 characters ADDRESS FIELD = 1 character FUNCTION CODE = 1 character DATA FIELD = N characters ERROR CHECK = CRC 16 bit FRAME END = silence on line for time >= 4 characters. 3-2 Description
9 3.1 LRC and CRC generation Example of the LRC generation with C language: static unsigned char LRC(ptMsg, usdatalen) unsigned char *ptmsg; /* message to calculate LRC upon */ unsigned short usdatalen; /* number of bytes in message */ { unsigned char uchlrc = 0; /* LRC character */ hile(usdatalen ) /* pass through message buffer */ uchlrc += *ptmsg++; /* add buffer byte without carry */ return((unsigned char)(-(char)uchlrc));/* return two s complement */ di due */ } Example of the CRC 16 generation with C language: static unsigned char auchcrchi[] = { 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40 }; 3-3 Description
10 static unsigned char auchcrclo[] = { 0x00, 0xC0, 0xC1, 0x01, 0xC3, 0x03, 0x02, 0xC2, 0xC6, 0x06, 0x07, 0xC7, 0x05, 0xC5, 0xC4, 0x04, 0xCC, 0x0C, 0x0D, 0xCD, 0x0F, 0xCF, 0xCE, 0x0E, 0x0A, 0xCA, 0xCB, 0x0B, 0xC9, 0x09, 0x08, 0xC8, 0xD8, 0x18, 0x19, 0xD9, 0x1B, 0xDB, 0xDA, 0x1A, 0x1E, 0xDE, 0xDF, 0x1F, 0xDD, 0x1D, 0x1C, 0xDC, 0x14, 0xD4, 0xD5, 0x15, 0xD7, 0x17, 0x16, 0xD6, 0xD2, 0x12, 0x13, 0xD3, 0x11, 0xD1, 0xD0, 0x10, 0xF0, 0x30, 0x31, 0xF1, 0x33, 0xF3, 0xF2, 0x32, 0x36, 0xF6, 0xF7, 0x37, 0xF5, 0x35, 0x34, 0xF4, 0x3C, 0xFC, 0xFD, 0x3D, 0xFF, 0x3F, 0x3E, 0xFE, 0xFA, 0x3A, 0x3B, 0xFB, 0x39, 0xF9, 0xF8, 0x38, 0x28, 0xE8, 0xE9, 0x29, 0xEB, 0x2B, 0x2A, 0xEA, 0xEE, 0x2E, 0x2F, 0xEF, 0x2D, 0xED, 0xEC, 0x2C, 0xE4, 0x24, 0x25, 0xE5, 0x27, 0xE7, 0xE6, 0x26, 0x22, 0xE2, 0xE3, 0x23, 0xE1, 0x21, 0x20, 0xE0, 0xA0, 0x60, 0x61, 0xA1, 0x63, 0xA3, 0xA2, 0x62, 0x66, 0xA6, 0xA7, 0x67, 0xA5, 0x65, 0x64, 0xA4, 0x6C, 0xAC, 0xAD, 0x6D, 0xAF, 0x6F, 0x6E, 0xAE, 0xAA, 0x6A, 0x6B, 0xAB, 0x69, 0xA9, 0xA8, 0x68, 0x78, 0xB8, 0xB9, 0x79, 0xBB, 0x7B, 0x7A, 0xBA, 0xBE, 0x7E, 0x7F, 0xBF, 0x7D, 0xBD, 0xBC, 0x7C, 0xB4, 0x74, 0x75, 0xB5, 0x77, 0xB7, 0xB6, 0x76, 0x72, 0xB2, 0xB3, 0x73, 0xB1, 0x71, 0x70, 0xB0, 0x50, 0x90, 0x91, 0x51, 0x93, 0x53, 0x52, 0x92, 0x96, 0x56, 0x57, 0x97, 0x55, 0x95, 0x94, 0x54, 0x9C, 0x5C, 0x5D, 0x9D, 0x5F, 0x9F, 0x9E, 0x5E, 0x5A, 0x9A, 0x9B, 0x5B, 0x99, 0x59, 0x58, 0x98, 0x88, 0x48, 0x49, 0x89, 0x4B, 0x8B, 0x8A, 0x4A, 0x4E, 0x8E, 0x8F, 0x4F, 0x8D, 0x4D, 0x4C, 0x8C, 0x44, 0x84, 0x85, 0x45, 0x87, 0x47, 0x46, 0x86, 0x82, 0x42, 0x43, 0x83, 0x41, 0x81, 0x80, 0x40 }; CRC16(ptMsg, usdatalen) short unsigned unsigned char *ptmsg; /* message to calculate CRC upon*/ short unsignedusdatalen ; /* message byte number */ { unsigned char uchcrchi = 0xFF; /* high byte CRC */ unsigned char uchcrclo = 0xFF; /* low byte CRC */ unsigned uindex; while(usdatalen ) while(usdatalen ) /* pass through message buffer */ { uindex = uchcrchi ^ *ptmsg++; /* calculate CRC */ uchcrchi = uchcrclo ^ auchcrchi[uindex]; uchcrclo = auchcrclo[uindex]; } return(uchcrchi << 8 uchcrclo); } NOTE The Error Check (LCR or CRC) field must be calculated by referring to the characters, from the first character of ADDR to the last one of DATA included. 3-4 Description
11 4. Read Registers (Function code $03) Read the binary contents of holding registers (4X references) in the slave. Broadcast is not supported. The query message specifies the starting register and the quantity of registers to read. NOTE It is possible to read more than one variable at the same time only if their addresses are consecutive. Variables cannot be reading with two separate commands; a single command is needed. QUERY: FRAME ADDRESS FUNCTION START NO. OF ERROR FRAME START FIELD CODE ADDRESS REGISTERS CHECK END FRAME START = Message start marker. ADDRESS FIELD = device address (00...F7 HEX) (1 byte). FUNCTION CODE = Operation code (03 HEX) (1 byte). START ADDRESS = First register address to read (2 bytes). NO. OF REGISTERS = Number of registers (max 126) to read (4 bytes or 2 bytes for 1 IEEE). ERROR CHECK = Control character (check sum) FRAME END = End message marker. The data in the response message is arranged as two bytes per register, with the binary contents right-hand justified within each byte. For each register, the first byte contains the high order bits and the second contains the low order bits. 4-1 Read Registers
12 RESPONSE: FRAME ADDRESS FUNCTION NO. OF D0 D1.. Dn ERROR FRAME START FIELD CODE BYTES CHECK END FRAME START = Message start marker. ADDRESS FIELD = device address (00...F7 HEX) (1 byte). FUNCTION CODE = Operation code (03 HEX) (1 byte). NO. OF SENT BYTES = Number of data bytes (00...?? CRC 1 bit 1 register requires 2 data bytes. D0, D1,.., Dn = Data byte (00...?? HEX) (Register number x 2 = no. of bytes). ERROR CHECK = Control character (check sum) FRAME END = End message marker. See Section 7 for the and Section 8 for Examples. 4.1 Floating point as per IEEE Standard The basic format allows a IEEE standard floating-point number to be represented in a single-32 bit format, as shown below: N.n = (-1) S 2 e -127 (1.f ) where S is the sign bit, e is the first part of the exponent and f is the decimal fraction placed next to 1. Internally the exponent is 8 bits in length and the stored fraction is 23 bits long. The floating-point format is shown as follows: ======================================= S e f ======================================= < bit number 4-2 Read Registers
13 where: bit length Sign 1 Exponent 8 Fraction 23 + (1) Total m = 32 + (1) Exponent Min e 0 Max e 255 Bias 127 NOTE Note: Fractions (decimals) are always shown while the leading 1 (hidden bit) is not stored. See Section 7 for the. Example of conversion of value shown with floating point Value read with floating point: 45AACC00( 16 ) Value converted in binary format: ( 2 ) sign = 0 exponent = ( 2 ) = 139( 10 ) fraction = ( 2 ) = ( 10 ) N.n = (-1) S 2 e -127 (1.f ) = = (-1) ( ) = = (+1) (4096) ( ) = = Read Registers
14 5. Parameters set-up (Function Code $10) Pre-sets values into a sequence of holding registers (4X references). In Broadcast mode, the function pre-sets the same register references in all connected slaves. NOTE:The function will override the controller s memory protection state. The pre-set values will remain valid in the registers until the controller s logic next solves the register contents. The register values will remain the same if they are not programmed in the controller s logic. The query message specifies the register reference to be pre-set. Registers are addressed starting from zero: register 1 is addressed as 0. NOTE It is possible to write multiple variable at the same time if only their addresses are consecutive. Variables cannot be written with separate commands; a single command is needed. QUERY: FRAME ADDRESS FUNCTION START NO. OF NO.OF D0 D1.. Dn ERROR FRAME START FIELD. CODE ADDRESS REGISTERS BYTES CHECK END FRAME START = Message start marker. ADDRESS FIELD = Device address(00...f7 HEX) (1 byte). FUNCTION CODE = Operation code (10 HEX) (1 byte). START ADDRESS = First register address to be written (2 bytes). NO. OF REGISTERS = No. of registers to be written (1, 2,3...) (2 bytes). 5-1 Parameters set-up
15 NO. OF BYTES = Number of data bytes (01/02 HEX) (1 byte). 1 register requires 2 data bytes. D0, D1,.., Dn = Data bytes (00...?? HEX) (1 byte) (No. of register x 2 = no. of bytes). ERROR CHECK = Control character (check sum). FRAME END = End message marker. The normal response returns the following pre-set parameters: slave address, function code, starting address and the quantity of register. RESPONSE: FRAME ADDRESS FUNCTION START NO. OF ERROR FRAME START FIELD CODE ADDRESS REGISTERS CHECK END FRAME START = Message start marker. ADDRESS FIELD = Device address (00...F7 HEX) (1 byte). FUNCTION CODE = Operation code (10 HEX) (1 byte). STARTING ADDRESS = First register address to be written (2 bytes). NO. OF REGISTERS = Number of registers to be written (2 bytes). ERROR CHECK = Control character (check sum). FRAME END = End message marker. See Section 7 for the and section 8 for the Examples. 5-2 Parameters set-up
16 6. Error messages from Slave to Master When a slave device receives a not-valid query, an error message is transmitted. RESPONSE: FRAME ADDRESS FUNCTION START NO. OF ERROR FRAME START FIELD CODE ADDRESS REGISTERS CHECK END FRAME START = Message start marker. ADDRESS FIELD = Device address (00...F7 HEX) (1 byte). FUNCTION CODE = Operation code con bit 7 high (1 byte). ERROR CODE = Message containing communication failure (1 byte). ERROR CHECK = Control character (check sum). FRAME END = End message marker. 6.1 Error example QUERY Field name Example (HEX) Slave address 01 Function code 03 Starting address Hi 80 Starting address Lo 00 Number of word Hi 00 Number of word Lo 05 Error check (CRC) AC Error messages from Slave to Master
17 RESPONSE Field name Example (HEX) Slave address 01 Function code 83 (1) Error code 02 (2) Error check (CRC) C0 F1 (1): Function Code transmitted by master with bit 7 high. (2): error code: 01 = Illegal function 02 = Illegal data address 03 = Illegal data value 6-2 Error messages from Slave to Master
18 7. The table below shows all registers. 7.1 Measured values (Function code $03) Reg WordReg. WordDescription U. M. Sign (IEEE) $ $ PHASE SYSTEM VOLTAGE [mv] (Unsigned) MSB=0 $ $ PHASE VOLTAGE L 1-N [mv] (Unsigned) $ $ PHASE VOLTAGE L 2-N [mv] (Unsigned) $000C 4 $ PHASE VOLTAGE L 3-N [mv] (Unsigned) $ $ LINE VOLTAGE L 1-2 [mv] (Unsigned) $ $100A 2 LINE VOLTAGE L 2-3 [mv] (Unsigned) $ $100C 2 LINE VOLTAGE L 3-1 [mv] (Unsigned) $001C 4 $100E 2 3-PHASE SYSTEM CURRENT [ma] (Signed) MSB=1 $ $ LINE CURRENT L 1 [ma] (Signed) $ $ LINE CURRENT L 2 [ma] (Signed) $ $ LINE CURRENT L 3 [ma] (Signed) $002C 4 $ PHASE SYSTEM POWER FACTOR [-] (Signed) $ $ POWER FACTOR L 1 [-] (Signed) $ $101A 2 POWER FACTOR L 2 [-] (Signed) $ $101C 2 POWER FACTOR L 3 [-] (Signed) $003C 4 $101E 2 VOID [-] (Unsigned) $ $ PHASE COSØ L 1 [-] (Signed) $ $ PHASE COSØ L 2 [-] (Signed) $ $ PHASE COSØ L 3 [-] (Signed) $004C 4 $ PHASE SYSTEM APPARENT POWER [mva] (Signed) $ $ APPARENT POWER L 1 [mva] (Signed) $ $102A 2 APPARENT POWER L 2 [mva] (Signed) $ $102C 2 APPARENT POWER L 3 [mva] (Signed) $005C 4 $102E 2 3-PHASE SYSTEM ACTIVE POWER [mw] (Signed) $ $ ACTIVE POWER L 1 [mw] (Signed) $ $ ACTIVE POWER L 2 [mw] (Signed) $ $ ACTIVE POWER L 3 [mw] (Signed) $006C 4 $ PHASE SYSTEM REACTIVE POWER [mvar] (Signed) $ $ REACTIVE POWER L 1 [mvar] (Signed) $ $103A 2 REACTIVE POWER L 2 [mvar] (Signed) $ $103C 2 REACTIVE POWER L 3 [mvar] (Signed) $007C 4 $103E 2 3-PHASE SYS. ACTIVE ENERGY (+) [mwh] (Unsigned) $ $ PHASE SYSTEM REACTIVE ENERGY INDUCTIVE (+) [mvarh] (Unsigned) $ $ PHASE SYS. ACTIVE ENERGY (-) [mwh] (Unsigned) $ $ PHASE SYS. REACTIVE ENERGY INDUCTIVE (-) [mvarh] (Unsigned) $008C 4 $ FREQUENCY [mhz] (Unsigned) $ $ THD VOLTAGE L 1 $ $104A 2 THD VOLTAGE L 2 $ $104C 2 THD VOLTAGE L 3 $009C 4 $104E 2 THD CURRENT L 1 $00A0 4 $ THD CURRENT L 2 $00A4 4 $ THD CURRENT L 3 $00A8 4 $ VOID [-] (Unsigned) $00AC 4 $ VOID [-] (Unsigned) 7-1
19 Reg WordReg. WordDescription U. M. Sign (IEEE) $00B0 4 $ PHASE SYS. REACTIVE ENERGY CAPACITIVE (+) [mvarh] (Unsigned) $00B4 4 $105A 2 3-PHASE SYS. REACTIVE ENERGY CAPACITIVE (-) [mvarh] (Unsigned) $00B8 4 $105C 2 3-PHASE SYS. APPARENT EN. + [mvah] (Unsigned) $00BC 4 $105E 2 3-PHASE SYS. APPARENT EN. - [mvah] (Unsigned) $00C0 4 $ NEUTRAL CURRENT [ma] (Unsigned) DEMAND VALUES Reg WordReg. WordDescription U. M. Sign (IEEE) $00C4 4 $ DEMAND LINE CURRENT L 1 (IMPORTED ENERGY) [ma] (Signed) $00C8 4 $ DEMAND LINE CURRENT L 2 [ma] (Signed) $00CC 4 $ DEMAND LINE CURRENT L 3 [ma] (Signed) $00D0 4 $ DEMAND NEUTRAL CURRENT [ma] (Signed) $00D4 4 $ PHASE DEMAND CURRENT [ma] (Signed) $00D8 4 $806A 2 3-PHASE DEMAND ACTIVE POWER [mw] (Signed) $00DC 4 $806C 2 3-PHASE DEMAND APPARENT POWER [mva] (Signed) $00E0 4 $806E 2 3-PHASE DEMAND REACTIVE POWER - INDUCTIVE (LAGGING) [mvar] (Signed) $00E4 4 $ PHASE DEMAND REACTIVE POWER - CAPACITIVE (LEADING) [mvar] (Signed) $00E8 4 $ PH. DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) $00EC 4 $ DEMAND LINE CURRENT L 1 (EXPORTED ENERGY) [ma] (Signed) $00F0 4 $ DEMAND LINE CURRENT L 2 [ma] (Signed) $00F4 4 $ DEMAND LINE CURRENT L 3 [ma] (Signed) $00F8 4 $807A 2 3-PHASE DEMAND CURRENT [ma] (Signed) $00FC 4 $807C 2 3-PHASE DEMAND ACTIVE POWER [mw] (Signed) $ $807E 2 3-PHASE DEMAND APPARENT POWER [mva] (Signed) $ $ PHASE DEMAND REACTIVE POWER - INDUCTIVE (LAGGING) [mvar] (Signed) $ $ PHASE DEMAND REACTIVE POWER - CAPACITIVE (LEADING) [mvar] (Signed) $010C 4 $ PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) NOTE MAX. NUMBER OF REGISTERS THAT CAN BE READ WITH A SINGLE COMMAND - ASCII mode: 127 REGISTERS - RTU mode: 127 REGISTERS 7-2
20 7.2 Peak values (Function code $03) NOTE: Not available in case of double serial port communication board Reg WordReg. WordDescription U. M. Sign (IEEE) Acquired energy $ $ YY MM DD [-] (Unsigned) $ $808E 6 HH MM SS [-] (Unsigned) $ $ LINE CURRENT L 1 PEAK [ma] (Signed) $011A 3 $ YY MM DD [-] (Unsigned) $011D 3 $809C 6 HH MM SS [-] (Unsigned) $ $80A2 2 LINE CURRENT L 2 PEAK [ma] (Signed) $ $80A4 6 YY MM DD [-] (Unsigned) $ $80AA 6 HH MM SS [-] (Unsigned) $012A 4 $80B0 2 LINE CURRENT L 3 PEAK [ma] (Signed) $012E 3 $80B2 6 YY MM DD [-] (Unsigned) $ $80B8 6 HH MM SS [-] (Unsigned) $ $80BE 2 NEUTRAL LINE CURRENT PEAK [ma] (Signed) $ $80C0 6 YY MM DD [-] (Unsigned) $013B 3 $80C6 6 HH MM SS [-] (Unsigned) $013E 4 $80CC 2 3-PH. SYSTEM ACTIVE POWER PEAK [mw] (Signed) $ $80CE 2 3-PHASE SYS. APPARENT POWER [mva] (Signed) $ $80D0 2 3-PHASE SYSTEM REACTIVE POWER [mw] (Signed) $014A 4 $80D2 2 3-PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) $014E 3 $80D4 6 YY MM DD [-] (Unsigned) $ $80DA 6 HH MM SS [-] (Unsigned) $ $80E0 2 3-PH. SYS. APPARENT POWER PEAK [mva] (Signed) $ $80E2 2 3-PHASE SYSTEM ACTIVE POWER [mw] (Signed) $015C 4 $80E4 2 3-PHASE SYSTEM REACTIVE POWER [mw] (Signed) $ $80E6 2 3-PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) $ $80E8 6 YY MM DD [-] (Unsigned) $ $80EE 6 HH MM SS [-] (Unsigned) $016A 4 $80F4 2 3-PHASE SYSTEM REACTIVE POWER - INDUCTIVE (LAGGING) PEAK [mvar] (Signed) $016E 4 $80F6 2 3-PHASE SYSTEM ACTIVE POWER [mw] (Signed) $ $80F8 2 3-PHASE SYS. APPARENT POWER [mva] (Signed) $ $80FA 2 3-PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) $017A 3 $80FC 6 YY MM DD [-] (Unsigned) $017D 3 $ HH MM SS [-] (Unsigned) $ $ PHASE SYSTEM REACTIVE POWER - CAPACITIVE (LEADING) PEAK [mvar] (Signed) $ $810A 2 3-PHASE SYSTEM ACTIVE POWER [mw] (Signed) $ $810C 2 3-PHASE SYS. APPARENT POWER [mva] (Signed) $018C 4 $810E 2 3-PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) 7-3
21 Reg WordReg. WordDescription U. M. Sign (IEEE) Transferred energy $ $ YY MM DD [-] (Unsigned) $ $ HH MM SS [-] (Unsigned) $ $811C 2 LINE CURRENT L 1 PEAK [ma] (Signed) $019C 3 $811E 6 YY MM DD [-] (Unsigned) $019F 3 $ HH MM SS [-] (Unsigned) $01A2 4 $812A 2 LINE CURRENT L 2 PEAK [ma] (Signed) $01A6 3 $812C 6 YY MM DD [-] (Unsigned) $01A9 3 $ HH MM SS [-] (Unsigned) $01AC 4 $ LINE CURRENT L 3 PEAK [ma] (Signed) $01B0 3 $813A 6 YY MM DD [-] (Unsigned) $01B3 3 $ HH MM SS [-] (Unsigned) $01B6 4 $ PH. SYSTEM ACTIVE POWER PEAK [mw] (Signed) $01BA 4 $ PHASE SYS. APPARENT POWER [mva] (Signed) $01BE 4 $814A 2 3-PHASE SYSTEM REACTIVE POWER [mw] (Signed) $01C2 4 $814C 2 3-PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) $01C6 3 $814E 6 YY MM DD [-] (Unsigned) $01C9 3 $ HH MM SS [-] (Unsigned) $01CC 4 $815A 2 3-PH. SYS. APPARENT POWER PEAK [mva] (Signed) $01D0 4 $815C 2 3-PHASE SYSTEM ACTIVE POWER [mw] (Signed) $01D4 4 $815E 2 3-PHASE SYSTEM REACTIVE POWER [mw] (Signed) $01D8 4 $ PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) $01DC 3 $ YY MM DD [-] (Unsigned) $01DF 3 $ HH MM SS [-] (Unsigned) $01E2 4 $816E 2 3-PHASE SYSTEM REACTIVE POWER - INDUTTIVE (LAGGING) PEAK [mvar] (Signed) $01E6 4 $ PHASE SYSTEM ACTIVE POWER [mw] (Signed) $01EA 4 $ PHASE SYS. APPARENT POWER [mva] (Signed) $01EE 4 $ PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) $01F2 3 $ YY MM DD [-] (Unsigned) $01F5 3 $817C 6 HH MM SS [-] (Unsigned) $01F8 4 $ PHASE SYSTEM REACTIVE POWER - CAPACITIVE (LEADING) PEAK [mvar] (Signed) $01FC 4 $ PHASE SYSTEM ACTIVE POWER [mw] (Signed) $ $ PHASE SYS. APPARENT POWER [mva] (Signed) $ $ PHASE DEMAND ACTIVE / APPARENT POWER RATIO [-] (Signed) 7-4
22 7.3 Min/Max values (Function code $03) NOTE: Not available in case of double serial port communication board Reg WordReg. WordDescription U. M. Sign (IEEE) $ $ YY MM DD [-] (Unsigned) $020B 3 $ HH MM SS [-] (Unsigned) $020E 4 $110C 2 3-PH. SYSTEM VOLTAGE MINIMUM [mv] (Unsigned) $ $110E 6 YY MM DD [-] (Unsigned) $ $ HH MM SS [-] (Unsigned) $ $111A 2 3-PH. SYSTEM VOLTAGE MAXIMUM [mv] (Unsigned) $021C 3 $111C 6 YY MM DD [-] (Unsigned) $021F 3 $ HH MM SS [-] (Unsigned) $ $ L 1-N VOLTAGE MINIMUM VALUE [mv] (Unsigned) $ $112A 6 YY MM DD [-] (Unsigned) $ $ HH MM SS [-] (Unsigned) $022C 4 $ L 1-N VOLTAGE MAXIMUM VALUE [mv] (Unsigned) $ $ YY MM DD [-] (Unsigned) $ $113E 6 HH MM SS [-] (Unsigned) $ $ L 2-N VOLTAGE MINIMUM VALUE [mv] (Unsigned) $023A 3 $ YY MM DD [-] (Unsigned) $023D 3 $114C 6 HH MM SS [-] (Unsigned) $ $ L 2-N VOLTAGE MAXIMUM VALUE [mv] (Unsigned) $ $ YY MM DD [-] (Unsigned) $ $115A 6 HH MM SS [-] (Unsigned) $024A 4 $ L 3-N VOLTAGE MINIMUM VALUE [mv] (Unsigned) $024E 3 $ YY MM DD [-] (Unsigned) $ $ HH MM SS [-] (Unsigned) $ $116E 2 L 3-N VOLTAGE MAXIMUM VALUE [mv] (Unsigned) $ $ YY MM DD [-] (Unsigned) $025B 3 $ HH MM SS [-] (Unsigned) $025E 4 $117C 2 3-PH. SYSTEM CURRENT MINIMUM [ma] (Signed) $ $117E 6 YY MM DD [-] (Unsigned) $ $ HH MM SS [-] (Unsigned) $ $118A 2 3-PH. SYSTEM CURRENT MAXIMUM [ma] (Signed) $026C 3 $118C 6 YY MM DD [-] (Unsigned) $026F 3 $ HH MM SS [-] (Unsigned) $ $ L 1 LINE CURRENT MINIMUM VALUE [ma] (Signed) $ $119A 6 YY MM DD [-] (Unsigned) $ $11A0 6 HH MM SS [-] (Unsigned) $027C 4 $11A6 2 L 1 LINE CURRENT MAXIMUM VALUE [ma] (Signed) $ $11A8 6 YY MM DD [-] (Unsigned) $ $11AE 6 HH MM SS [-] (Unsigned) $ $11B4 2 L 2 LINE CURRENT MINIMUM VALUE [ma] (Signed) $028A 3 $11B6 6 YY MM DD [-] (Unsigned) $028D 3 $11BC 6 HH MM SS [-] (Unsigned) $ $11C2 2 L 2 LINE CURRENT MAXIMUM VALUE [ma] (Signed) 7-5
23 Reg WordReg. WordDescription U. M. Sign (IEEE) $ $11C4 6 YY MM DD [-] (Unsigned) $ $11CA 6 HH MM SS [-] (Unsigned) $029A 4 $11D0 2 L 3 LINE CURRENT MINIMUM VALUE [ma] (Signed) $029E 3 $11D2 6 YY MM DD [-] (Unsigned) $02A1 3 $11D8 6 HH MM SS [-] (Unsigned) $02A4 4 $11DE 2 L 3 LINE CURRENT MAXIMUM VALUE [ma] (Signed) $02A8 3 $11E0 6 YY MM DD [-] (Unsigned) $02AB 3 $11E6 6 HH MM SS [-] (Unsigned) $02AE 4 $11EC 2 3-PH. SYSTEM ACTIVE POWER MIN. [mw] (Signed) $02B2 3 $11EE 6 YY MM DD [-] (Unsigned) $02B5 3 $11F4 6 HH MM SS [-] (Unsigned) $02B8 4 $11FA 2 3-PH. SYSTEM ACTIVE POWER MAX. [mw] (Signed) $02BC 3 $11FC 6 YY MM DD [-] (Unsigned) $02BF 3 $ HH MM SS [-] (Unsigned) $02C2 4 $ PH. SYS. APPARENT POWER MIN. [mva] (Signed) $02C6 3 $120A 6 YY MM DD [-] (Unsigned) $02C9 3 $ HH MM SS [-] (Unsigned) $02CC 4 $ PH. SYS. APPARENT POWER MAX. [mva] (Signed) $02D0 3 $ YY MM DD [-] (Unsigned) $02D3 3 $121E 6 HH MM SS [-] (Unsigned) $02D6 4 $ PH. SYSTEM POWER FACTOR MIN. [-] (Signed) $02DA 3 $ YY MM DD [-] (Unsigned) $02DD 3 $122C 6 HH MM SS [-] (Unsigned) $02E0 4 $ PH. SYSTEM POWER FACTOR MAX. [-] (Signed) $02E4 3 $ YY MM DD [-] (Unsigned) $02E7 3 $123A 6 HH MM SS [-] (Unsigned) $02EA 4 $ PH. SYS. REACTIVE POWER MIN. [mvar] (Signed) $02EE 3 $ YY MM DD [-] (Unsigned) $02F1 3 $ HH MM SS [-] (Unsigned) $02F4 4 $124E 2 3-PH. SYS. REACTIVE POWER MAX. [mvar] (Signed) 7-6
24 7.4 Harmonics values (Function code $03) Reg WordReg. WordDescription U. M. Sign (IEEE) $ $ ST VOLTAGE HARMONIC OF THE L 1 $ $ ND VOLTAGE HARMONIC OF THE L 1 $ $ RD VOLTAGE HARMONIC OF THE L 1 $030C 4 $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $820A 2 6 TH VOLTAGE HARMONIC OF THE L 1 $ $820C 2 7 TH VOLTAGE HARMONIC OF THE L 1 $031C 4 $820E 2 8 TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $032C 4 $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $821A 2 14 TH VOLTAGE HARMONIC OF THE L 1 $ $821C 2 15 TH VOLTAGE HARMONIC OF THE L 1 $033C 4 $821E 2 16 TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $034C 4 $ TH VOLTAGE HARMONIC OF THE L 1 $ $ ST VOLTAGE HARMONIC OF THE L 1 $ $822A 2 22 ND VOLTAGE HARMONIC OF THE L 1 $ $822C 2 23 RD VOLTAGE HARMONIC OF THE L 1 $035C 4 $822E 2 24 TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $036C 4 $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $823A 2 30 TH VOLTAGE HARMONIC OF THE L 1 $ $823C 2 31 ST VOLTAGE HARMONIC OF THE L 1 $037C 4 $823E 2 32 ND VOLTAGE HARMONIC OF THE L 1 $ $ RD VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $038C 4 $ TH VOLTAGE HARMONIC OF THE L 1 $ $ TH VOLTAGE HARMONIC OF THE L 1 $ $824A 2 38 TH VOLTAGE HARMONIC OF THE L 1 $ $824C 2 39 TH VOLTAGE HARMONIC OF THE L 1 $039C 4 $824E 2 40 TH VOLTAGE HARMONIC OF THE L 1 $03A0 4 $ ST VOLTAGE HARMONIC OF THE L 1 $03A4 4 $ ND VOLTAGE HARMONIC OF THE L 1 $03A8 4 $ RD VOLTAGE HARMONIC OF THE L 1 $03AC 4 $ TH VOLTAGE HARMONIC OF THE L 1 $03B0 4 $ TH VOLTAGE HARMONIC OF THE L 1 $03B4 4 $825A 2 46 TH VOLTAGE HARMONIC OF THE L 1 $03B8 4 $825C 2 47 TH VOLTAGE HARMONIC OF THE L 1 $03BC 4 $825E 2 48 TH VOLTAGE HARMONIC OF THE L 1 $03C0 4 $ TH VOLTAGE HARMONIC OF THE L 1 $03C4 4 $ TH VOLTAGE HARMONIC OF THE L 1 7-7
25 Reg WordReg. WordDescription U. M. Sign (IEEE) $03C8 4 $ ST VOLTAGE HARMONIC OF THE L 2 $03CC 4 $ ND VOLTAGE HARMONIC OF THE L 2 $03D0 4 $ RD VOLTAGE HARMONIC OF THE L 2 $03D4 4 $826A 2 4 TH VOLTAGE HARMONIC OF THE L 2 $03D8 4 $826C 2 5 TH VOLTAGE HARMONIC OF THE L 2 $03DC 4 $826E 2 6 TH VOLTAGE HARMONIC OF THE L 2 $03E0 4 $ TH VOLTAGE HARMONIC OF THE L 2 $03E4 4 $ TH VOLTAGE HARMONIC OF THE L 2 $03E8 4 $ TH VOLTAGE HARMONIC OF THE L 2 $03EC 4 $ TH VOLTAGE HARMONIC OF THE L 2 $03F0 4 $ TH VOLTAGE HARMONIC OF THE L 2 $03F4 4 $827A 2 12 TH VOLTAGE HARMONIC OF THE L 2 $03F8 4 $827C 2 13 TH VOLTAGE HARMONIC OF THE L 2 $04FC 4 $827E 2 14 TH VOLTAGE HARMONIC OF THE L 2 $ $ TH VOLTAGE HARMONIC OF THE L 2 $ $ TH VOLTAGE HARMONIC OF THE L 2 $ $ TH VOLTAGE HARMONIC OF THE L 2 $040C 4 $ TH VOLTAGE HARMONIC OF THE L 2 $ $ TH VOLTAGE HARMONIC OF THE L 2 $ $828A 2 20 TH VOLTAGE HARMONIC OF THE L 2 $ $828C 2 21 ST VOLTAGE HARMONIC OF THE L 2 $041C 4 $828E 2 22 ND VOLTAGE HARMONIC OF THE L 2 $ $ RD VOLTAGE HARMONIC OF THE L 2 $ $ TH VOLTAGE HARMONIC OF THE L 2 $ $ TH VOLTAGE HARMONIC OF THE L 2 $042C 4 $ TH VOLTAGE HARMONIC OF THE L 2 $ $ TH VOLTAGE HARMONIC OF THE L 2 $ $829A 2 28 TH VOLTAGE HARMONIC OF THE L 2 $ $829C 2 29 TH VOLTAGE HARMONIC OF THE L 2 $043C 4 $829E 2 30 TH VOLTAGE HARMONIC OF THE L 2 $ $82A ST VOLTAGE HARMONIC OF THE L 2 $ $82A ND VOLTAGE HARMONIC OF THE L 2 $ $82A RD VOLTAGE HARMONIC OF THE L 2 $044C 4 $82A TH VOLTAGE HARMONIC OF THE L 2 $ $82A TH VOLTAGE HARMONIC OF THE L 2 $ $82AA 2 36 TH VOLTAGE HARMONIC OF THE L 2 $ $82AC 2 37 TH VOLTAGE HARMONIC OF THE L 2 $045C 4 $82AE 2 38 TH VOLTAGE HARMONIC OF THE L 2 $ $82B TH VOLTAGE HARMONIC OF THE L 2 $ $82B TH VOLTAGE HARMONIC OF THE L 2 $ $82B ST VOLTAGE HARMONIC OF THE L 2 $046C 4 $82B ND VOLTAGE HARMONIC OF THE L 2 $ $82B RD VOLTAGE HARMONIC OF THE L 2 $ $82BA 2 44 TH VOLTAGE HARMONIC OF THE L 2 $ $82BC 2 45 TH VOLTAGE HARMONIC OF THE L 2 $047C 4 $82BE 2 46 TH VOLTAGE HARMONIC OF THE L 2 $ $82C TH VOLTAGE HARMONIC OF THE L 2 $ $82C TH VOLTAGE HARMONIC OF THE L 2 $ $82C TH VOLTAGE HARMONIC OF THE L 2 $048C 4 $82C TH VOLTAGE HARMONIC OF THE L 2 7-8
26 Reg WordReg. WordDescription U. M. Sign (IEEE) $ $82C8 2 1 ST VOLTAGE HARMONIC OF THE L 3 $ $82CA 2 2 ND VOLTAGE HARMONIC OF THE L 3 $ $82CC 2 3 RD VOLTAGE HARMONIC OF THE L 3 $049C 4 $82CE 2 4 TH VOLTAGE HARMONIC OF THE L 3 $04A0 4 $82D0 2 5 TH VOLTAGE HARMONIC OF THE L 3 $04A4 4 $82D2 2 6 TH VOLTAGE HARMONIC OF THE L 3 $04A8 4 $82D4 2 7 TH VOLTAGE HARMONIC OF THE L 3 $04AC 4 $82D6 2 8 TH VOLTAGE HARMONIC OF THE L 3 $04B0 4 $82D8 2 9 TH VOLTAGE HARMONIC OF THE L 3 $04B4 4 $82DA 2 10 TH VOLTAGE HARMONIC OF THE L 3 $04B8 4 $82DC 2 11 TH VOLTAGE HARMONIC OF THE L 3 $04BC 4 $82DE 2 12 TH VOLTAGE HARMONIC OF THE L 3 $04C0 4 $82E TH VOLTAGE HARMONIC OF THE L 3 $04C4 4 $82E TH VOLTAGE HARMONIC OF THE L 3 $04C8 4 $82E TH VOLTAGE HARMONIC OF THE L 3 $04CC 4 $82E TH VOLTAGE HARMONIC OF THE L 3 $04D0 4 $82E TH VOLTAGE HARMONIC OF THE L 3 $04D4 4 $82EA 2 18 TH VOLTAGE HARMONIC OF THE L 3 $04D8 4 $82EC 2 19 TH VOLTAGE HARMONIC OF THE L 3 $04DC 4 $82EE 2 20 TH VOLTAGE HARMONIC OF THE L 3 $04E0 4 $82F ST VOLTAGE HARMONIC OF THE L 3 $04E4 4 $82F ND VOLTAGE HARMONIC OF THE L 3 $04E8 4 $82F RD VOLTAGE HARMONIC OF THE L 3 $04EC 4 $82F TH VOLTAGE HARMONIC OF THE L 3 $04F0 4 $82F TH VOLTAGE HARMONIC OF THE L 3 $04F4 4 $82FA 2 26 TH VOLTAGE HARMONIC OF THE L 3 $04F8 4 $82FC 2 27 TH VOLTAGE HARMONIC OF THE L 3 $04FC 4 $82FE 2 28 TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $ $ ST VOLTAGE HARMONIC OF THE L 3 $050C 4 $ ND VOLTAGE HARMONIC OF THE L 3 $ $ RD VOLTAGE HARMONIC OF THE L 3 $ $830A 2 34 TH VOLTAGE HARMONIC OF THE L 3 $ $830C 2 35 TH VOLTAGE HARMONIC OF THE L 3 $051C 4 $830E 2 36 TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $052C 4 $ TH VOLTAGE HARMONIC OF THE L 3 $ $ ST VOLTAGE HARMONIC OF THE L 3 $ $831A 2 42 ND VOLTAGE HARMONIC OF THE L 3 $ $831C 2 43 RD VOLTAGE HARMONIC OF THE L 3 $053C 4 $831E 2 44 TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $054C 4 $ TH VOLTAGE HARMONIC OF THE L 3 $ $ TH VOLTAGE HARMONIC OF THE L 3 $ $832A 2 50 TH VOLTAGE HARMONIC OF THE L 3 7-9
27 Reg WordReg. WordDescription U. M. Sign (IEEE) $ $832C 2 1 ST CURRENT HARMONIC OF THE L 1 $055C 4 $832E 2 2 ND CURRENT HARMONIC OF THE L 1 $ $ RD CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $056C 4 $ TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $ $833A 2 8 TH CURRENT HARMONIC OF THE L 1 $ $833C 2 9 TH CURRENT HARMONIC OF THE L 1 $057C 4 $833E 2 10 TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $058C 4 $ TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $ $834A 2 16 TH CURRENT HARMONIC OF THE L 1 $ $834C 2 17 TH CURRENT HARMONIC OF THE L 1 $059C 4 $834E 2 18 TH CURRENT HARMONIC OF THE L 1 $05A0 4 $ TH CURRENT HARMONIC OF THE L 1 $05A4 4 $ TH CURRENT HARMONIC OF THE L 1 $05A8 4 $ TH CURRENT HARMONIC OF THE L 1 $05AC 4 $ TH CURRENT HARMONIC OF THE L 1 $05B0 4 $ TH CURRENT HARMONIC OF THE L 1 $05B4 4 $835A 2 24 TH CURRENT HARMONIC OF THE L 1 $05B8 4 $835C 2 25 TH CURRENT HARMONIC OF THE L 1 $05BC 4 $835E 2 26 TH CURRENT HARMONIC OF THE L 1 $05C0 4 $ TH CURRENT HARMONIC OF THE L 1 $05C4 4 $ TH CURRENT HARMONIC OF THE L 1 $05C8 4 $ TH CURRENT HARMONIC OF THE L 1 $05CC 4 $ TH CURRENT HARMONIC OF THE L 1 $05D0 4 $ ST CURRENT HARMONIC OF THE L 1 $05D4 4 $836A 2 32 ND CURRENT HARMONIC OF THE L 1 $05D8 4 $836C 2 33 RD CURRENT HARMONIC OF THE L 1 $05DC 4 $836E 2 34 TH CURRENT HARMONIC OF THE L 1 $05E0 4 $ TH CURRENT HARMONIC OF THE L 1 $05E4 4 $ TH CURRENT HARMONIC OF THE L 1 $05E8 4 $ TH CURRENT HARMONIC OF THE L 1 $05EC 4 $ TH CURRENT HARMONIC OF THE L 1 $05F0 4 $ TH CURRENT HARMONIC OF THE L 1 $05F4 4 $837A 2 40 TH CURRENT HARMONIC OF THE L 1 $05F8 4 $837C 2 41 ST CURRENT HARMONIC OF THE L 1 $05FC 4 $837E 2 42 ND CURRENT HARMONIC OF THE L 1 $ $ RD CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $060C 4 $ TH CURRENT HARMONIC OF THE L 1 $ $ TH CURRENT HARMONIC OF THE L 1 $ $838A 2 48 TH CURRENT HARMONIC OF THE L 1 $ $838C 2 49 TH CURRENT HARMONIC OF THE L 1 $061C 4 $838E 2 50 TH CURRENT HARMONIC OF THE L
28 Reg WordReg. WordDescription U. M. Sign (IEEE) $ $ ST CURRENT HARMONIC OF THE L 2 $ $ ND CURRENT HARMONIC OF THE L 2 $ $ RD CURRENT HARMONIC OF THE L 2 $062C 4 $ TH CURRENT HARMONIC OF THE L 2 $ $ TH CURRENT HARMONIC OF THE L 2 $ $839A 2 6 TH CURRENT HARMONIC OF THE L 2 $ $839C 2 7 TH CURRENT HARMONIC OF THE L 2 $063C 4 $839E 2 8 TH CURRENT HARMONIC OF THE L 2 $ $83A0 2 9 TH CURRENT HARMONIC OF THE L 2 $ $83A TH CURRENT HARMONIC OF THE L 2 $ $83A TH CURRENT HARMONIC OF THE L 2 $064C 4 $83A TH CURRENT HARMONIC OF THE L 2 $ $83A TH CURRENT HARMONIC OF THE L 2 $ $83AA 2 14 TH CURRENT HARMONIC OF THE L 2 $ $83AC 2 15 TH CURRENT HARMONIC OF THE L 2 $065C 4 $83AE 2 16 TH CURRENT HARMONIC OF THE L 2 $ $83B TH CURRENT HARMONIC OF THE L 2 $ $83B TH CURRENT HARMONIC OF THE L 2 $ $83B TH CURRENT HARMONIC OF THE L 2 $066C 4 $83B TH CURRENT HARMONIC OF THE L 2 $ $83B TH CURRENT HARMONIC OF THE L 2 $ $83BA 2 22 TH CURRENT HARMONIC OF THE L 2 $ $83BC 2 23 TH CURRENT HARMONIC OF THE L 2 $067C 4 $83BE 2 24 TH CURRENT HARMONIC OF THE L 2 $ $83C TH CURRENT HARMONIC OF THE L 2 $ $83C TH CURRENT HARMONIC OF THE L 2 $ $83C TH CURRENT HARMONIC OF THE L 2 $068C 4 $83C TH CURRENT HARMONIC OF THE L 2 $ $83C TH CURRENT HARMONIC OF THE L 2 $ $83CA 2 30 TH CURRENT HARMONIC OF THE L 2 $ $83CC 2 31 ST CURRENT HARMONIC OF THE L 2 $069C 4 $83CE 2 32 ND CURRENT HARMONIC OF THE L 2 $06A0 4 $83D RD CURRENT HARMONIC OF THE L 2 $06A4 4 $83D TH CURRENT HARMONIC OF THE L 2 $06A8 4 $83D TH CURRENT HARMONIC OF THE L 2 $06AC 4 $83D TH CURRENT HARMONIC OF THE L 2 $06B0 4 $83D TH CURRENT HARMONIC OF THE L 2 $06B4 4 $83DA 2 38 TH CURRENT HARMONIC OF THE L 2 $06B8 4 $83DC 2 39 TH CURRENT HARMONIC OF THE L 2 $06BC 4 $83DE 2 40 TH CURRENT HARMONIC OF THE L 2 $06C0 4 $83E ST CURRENT HARMONIC OF THE L 2 $06C4 4 $83E ND CURRENT HARMONIC OF THE L 2 $06C8 4 $83E RD CURRENT HARMONIC OF THE L 2 $06CC 4 $83E TH CURRENT HARMONIC OF THE L 2 $06D0 4 $83E TH CURRENT HARMONIC OF THE L 2 $06D4 4 $83EA 2 46 TH CURRENT HARMONIC OF THE L 2 $06D8 4 $83EC 2 47 TH CURRENT HARMONIC OF THE L 2 $06DC 4 $83EE 2 48 TH CURRENT HARMONIC OF THE L 2 $06E0 4 $83F TH CURRENT HARMONIC OF THE L 2 $06E4 4 $83F TH CURRENT HARMONIC OF THE L
29 Reg WordReg. WordDescription U. M. Sign (IEEE) $06E8 4 $83F4 2 1 ST CURRENT HARMONIC OF THE L 3 $06EC 4 $83F6 2 2 ND CURRENT HARMONIC OF THE L 3 $06F0 4 $83F8 2 3 RD CURRENT HARMONIC OF THE L 3 $06F4 4 $83FA 2 4 TH CURRENT HARMONIC OF THE L 3 $06F8 4 $83FC 2 5 TH CURRENT HARMONIC OF THE L 3 $06FC 4 $83FE 2 6 TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $070C 4 $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $840A 2 12 TH CURRENT HARMONIC OF THE L 3 $ $840C 2 13 TH CURRENT HARMONIC OF THE L 3 $071C 4 $840E 2 14 TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $072C 4 $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $841A 2 20 TH CURRENT HARMONIC OF THE L 3 $ $841C 2 21 TH CURRENT HARMONIC OF THE L 3 $073C 4 $841E 2 22 TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $074C 4 $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $842A 2 28 TH CURRENT HARMONIC OF THE L 3 $ $842C 2 29 TH CURRENT HARMONIC OF THE L 3 $075C 4 $842E 2 30 TH CURRENT HARMONIC OF THE L 3 $ $ ST CURRENT HARMONIC OF THE L 3 $ $ ND CURRENT HARMONIC OF THE L 3 $ $ RD CURRENT HARMONIC OF THE L 3 $076C 4 $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $843A 2 36 TH CURRENT HARMONIC OF THE L 3 $ $843C 2 37 TH CURRENT HARMONIC OF THE L 3 $077C 4 $843E 2 38 TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ TH CURRENT HARMONIC OF THE L 3 $ $ ST CURRENT HARMONIC OF THE L 3 $078C 4 $ ND CURRENT HARMONIC OF THE L 3 $ $ RD CURRENT HARMONIC OF THE L 3 $ $844A 2 44 TH CURRENT HARMONIC OF THE L 3 $ $844C 2 45 TH CURRENT HARMONIC OF THE L 3 $079C 4 $844E 2 46 TH CURRENT HARMONIC OF THE L 3 $07A0 4 $ TH CURRENT HARMONIC OF THE L 3 $07A4 4 $ TH CURRENT HARMONIC OF THE L 3 $07A8 4 $ TH CURRENT HARMONIC OF THE L 3 $07AC 4 $ TH CURRENT HARMONIC OF THE L
30 7.5 Time band energy counters ($03) NOTE: Not available in case of double serial port communication board Reg WordReg. WordDescription U. M. Sign (IEEE) Previous month $ $ Acquired Active energy band 1 [mwh] (Unsigned) $ $ Acq. Inductive reactive energy band 1 [mvarh] (Unsigned) $ $ Acq. Capacitive react. energy band 1 [mvarh] (Unsigned) $080C 4 $ Acquired Apparent energy band 1 [mvah] (Unsigned) $ $ Transferred active energy band 1 [mwh] (Unsigned) $ $850A 2 Tran. Inductive reactive energy band 1 [mvarh] (Unsigned) $ $850C 2 Tran. Capacitive react. energy band 1 [mvarh] (Unsigned) $081C 4 $850E 2 Transferred Apparent energy band 1 [mvah] (Unsigned) $ $ Acquired Active energy band 2 [mwh] (Unsigned) $ $ Acq. Inductive reactive energy band 2 [mvarh] (Unsigned) $ $ Acq. Capacitive react. energy band 2 [mvarh] (Unsigned) $082C 4 $ Acquired Apparent energy band 2 [mvah] (Unsigned) $ $ Transferred Active energy band 2 [mwh] (Unsigned) $ $851A 2 Tran. Inductive reactive energy band 2 [mvarh] (Unsigned) $ $851C 2 Tran. Capacitive react. energy band 2 [mvarh] (Unsigned) $083C 4 $851E 2 Transferred Apparent energy band 2 [mvah] (Unsigned) $ $ Acquired Active energy band 3 [mwh] (Unsigned) $ $ Acq. Inductive reactive energy band 3 [mvarh] (Unsigned) $ $ Acq. Capacitive react. energy band 3 [mvarh] (Unsigned) $084C 4 $ Acquired Apparent energy band 3 [mvah] (Unsigned) $ $ Transferred Active energy band 3 [mwh] (Unsigned) $ $852A 2 Tran. Inductive reactive energy band 3 [mvarh] (Unsigned) $ $852C 2 Tran. Capacitive react. energy band 3 [mvarh] (Unsigned) $085C 4 $852E 2 Transferred Apparent energy band 3 [mvah] (Unsigned) Current month $ $ Acquired Active energy band 1 [mwh] (Unsigned) $ $ Acq. Inductive reactive energy band 1 [mvarh] (Unsigned) $ $ Acq. Capacitive react. energy band 1 [mvarh] (Unsigned) $086C 4 $ Acquired Apparent energy band 1 [mvah] (Unsigned) $ $ Transferred Active energy band 1 [mwh] (Unsigned) $ $853A 2 Tran. Inductive reactive energy band 1 [mvarh] (Unsigned) $ $853C 2 Tran. Capacitive react. energy band 1 [mvarh] (Unsigned) $087C 4 $853E 2 Transferred Apparent energy band 1 [mvah] (Unsigned) $ $ Acquired Active energy band 2 [mwh] (Unsigned) $ $ Acq. Inductive reactive energy band 2 [mvarh] (Unsigned) $ $ Acq. Capacitive react. energy band 2 [mvarh] (Unsigned) $088C 4 $ Acquired Apparent energy band 2 [mvah] (Unsigned) $ $ Transferred Active energy band 2 [mwh] (Unsigned) $ $854A 2 Tran. Inductive reactive energy band 2 [mvarh] (Unsigned) $ $854C 2 Tran. Capacitive react. energy band 2 [mvarh] (Unsigned) $089C 4 $854E 2 Transferred Apparent energy band 2 [mvah] (Unsigned) $08A0 4 $ Acquired Active energy band 3 [mwh] (Unsigned) $08A4 4 $ Acq. Inductive reactive energy band 3 [mvarh] (Unsigned) $08A8 4 $ Acq. Capacitive react. energy band 3 [mvarh] (Unsigned) $08AC4 $ Acquired Apparent energy band 3 [mvah] (Unsigned) $08B0 4 $ Transferred Active energy band 3 [mwh] (Unsigned) $08B4 4 $855A 2 Tran. Inductive reactive energy band 3 [mvarh] (Unsigned) $08B8 4 $855C 2 Tran. Capacitive react. energy band 3 [mvarh] (Unsigned) $08BC 4 $855E 2 Transferred Apparent energy band 3 [mvah] (Unsigned) 7-13
31 Reg WordReg. WordDescription U. M. Sign (IEEE) Previous day $08C0 4 $ Acquired Active energy band 1 [mwh] (Unsigned) $08C4 4 $ Acq. Inductive reactive energy band 1 [mvarh] (Unsigned) $08C8 4 $ Acq. Capacitive react. energy band 1 [mvarh] (Unsigned) $08CC 4 $ Acquired Apparent energy band 1 [mvah] (Unsigned) $08D0 4 $ Transferred Active energy band 1 [mwh] (Unsigned) $08D4 4 $856A 2 Tran. Inductive reactive energy band 1 [mvarh] (Unsigned) $08D8 4 $856C 2 Tran. Capacitive react. energy band 1 [mvarh] (Unsigned) $08DC 4 $856E 2 Transferred Apparent energy band 1 [mvah] (Unsigned) $08E0 4 $ Acquired Active energy band 2 [mwh] (Unsigned) $08E4 4 $ Acq. Inductive reactive energy band 2 [mvarh] (Unsigned) $08E8 4 $ Acq. Capacitive react. energy band 2 [mvarh] (Unsigned) $08EC 4 $ Acquired Apparent energy band 2 [mvah] (Unsigned) $08F0 4 $ Transferred Active energy band 2 [mwh] (Unsigned) $08F4 4 $857A 2 Tran. Inductive reactive energy band 2 [mvarh] (Unsigned) $08F8 4 $857C 2 Tran. Capacitive react. energy band 2 [mvarh] (Unsigned) $08FC 4 $857E 2 Transferred Apparent energy band 2 [mvah] (Unsigned) $ $ Acquired Active energy band 3 [mwh] (Unsigned) $ $ Acq. Inductive reactive energy band 3 [mvarh] (Unsigned) $ $ Acq. Capacitive react. energy band 3 [mvarh] (Unsigned) $090C 4 $ Acquired Apparent energy band 3 [mvah] (Unsigned) $ $ Transferred Active energy band 3 [mwh] (Unsigned) $ $858A 2 Tran. Inductive reactive energy band 3 [mvarh] (Unsigned) $ $858C 2 Tran. Capacitive react. energy band 3 [mvarh] (Unsigned) $091C 4 $858E 2 Transferred Apparent energy band 3 [mvah] (Unsigned) Current day $ $ Acquired Active energy band 1 [mwh] (Unsigned) $ $ Acq. Inductive reactive energy band 1 [mvarh] (Unsigned) $ $ Acq. Capacitive react. energy band 1 [mvarh] (Unsigned) $092C 4 $ Acquired Apparent energy band 1 [mvah] (Unsigned) $ $ Transferred Active energy band 1 [mwh] (Unsigned) $ $859A 2 Tran. Inductive reactive energy band 1 [mvarh] (Unsigned) $ $859C 2 Tran. Capacitive react. energy band 1 [mvarh] (Unsigned) $093C 4 $859E 2 Transferred Apparent energy band 1 [mvah] (Unsigned) $ $85A0 2 Acquired Active energy band 2 [mwh] (Unsigned) $ $85A2 2 Acq. Inductive reactive energy band 2 [mvarh] (Unsigned) $ $85A4 2 Acq. Capacitive react. energy band 2 [mvarh] (Unsigned) $094C 4 $85A6 2 Acquired Apparent energy band 2 [mvah] (Unsigned) $ $85A8 2 Transferred Active energy band 2 [mwh] (Unsigned) $ $85AA 2 Tran. Inductive reactive energy band 2 [mvarh] (Unsigned) $ $85AC 2 Tran. Capacitive react. energy band 2 [mvarh] (Unsigned) $095C 4 $85AE 2 Transferred Apparent energy band 2 [mvah] (Unsigned) $ $85B0 2 Acquired Active energy band 3 [mwh] (Unsigned) $ $85B2 2 Acq. Inductive reactive energy band 3 [mvarh] (Unsigned) $ $85B4 2 Acq. Capacitive react. energy band 3 [mvarh] (Unsigned) $096C 4 $85B6 2 Acquired Apparent energy band 3 [mvah] (Unsigned) $ $85B8 2 Transferred Active energy band 3 [mwh] (Unsigned) $ $85BA 2 Tran. Inductive reactive energy band 3 [mvarh] (Unsigned) $ $85BC 2 Tran. Capacitive react. energy band 3 [mvarh] (Unsigned) $097C 4 $85BE 2 Transferred Apparent energy band 3 [mvah] (Unsigned) NOTE: ALL VALUES ARE IN SECONDARY TERMS. 7-14
CooLink Programmers Reference Manual (PRM)
CooLink Programmers Reference Manual (PRM) CooLink RS232/RS485 Interface Adapter for Residential Air Conditioners CooLink D CooLink S CooLink T Document Revision 0.8 7/15/2012 CooLink PRM Contents 2 Table
More informationIEEE C802.16e-05/179r1
Project IEEE 802.16 Broadband Wireless Access Working Group Title MBS AES-CTR Test Vector and Test Program Changes Rev 1 Date Submitted 2005-03-17 Source(s) JUNHYUK SONG, JICHEOL
More informationCOMMUNICATION MODBUS PROTOCOL MFD44 NEMO-D4Le
COMMUNICATION MODBUS PROTOCOL MFD44 NEMO-D4Le PR129 20/10/2016 Pag. 1/21 CONTENTS 1.0 ABSTRACT... 2 2.0 DATA MESSAGE DESCRIPTION... 3 2.1 Parameters description... 3 2.2 Data format... 4 2.3 Description
More informationMMC instruction manual
MMC instruction manual 1 Introduction... 1 1.1 Overview... 1 1.2 Introduction... 1 1.2.1 Mother board... 1 1.2.2 4 channels PID module... 2 1.2.3 Output module... 3 1.2.4 Extension board... 3 1.2.5 AI
More informationM-BUS Communication Protocol. -for M-BUS modules and counters with integrated M-BUS interface-
M-BUS Communication Protocol -for M-BUS modules and counters with integrated M-BUS interface- USER MANUAL v009 - June edition 2017 Limitation of Liability The Manufacturer reserves the right to modify
More informationMODBUS RS485 SERIAL PROTOCOL
MODBUS RS485 SERIAL PROTOCOL ED39DIN DMM3 VIP39DIN VIP396 SIRIO STAR3 STAR3din VERSION 09 JULY 2004 Modbus SIRIO.doc 09 JULY 2004 Pag.1/22 The STAR3, STAR3 din, VIP396, VIP39din, DMM3, SIRIO and ED39din
More informationKeywords: primary cell, primary battery, fuel gauge, gas gauge, battery monitor
Keywords: primary cell, primary battery, fuel gauge, gas gauge, battery monitor APPLICATION NOTE 6416 HOW TO USE FUEL-GAUGING PRIMARY CELLS WITH THE MAX17201/MAX17211 AND MAX17205/MAX17215 By: Hushnak
More informationKnow your energy. Modbus Register Map EM etactica Power Meter
Know your energy Modbus Register Map EM etactica Power Meter Revision history Version Action Author Date 1.0 Initial document KP 25.08.2013 1.1 Document review, description and register update GP 26.08.2013
More informationKnow your energy. Modbus Register Map EB etactica Power Bar
Know your energy Modbus Register Map EB etactica Power Bar Revision history Version Action Author Date 1.0 Initial document KP 25.08.2013 1.1 Document review, description and register update GP 26.08.2013
More informationMulti-link Gearbox Implementation Agreement
Multi-link Gearbox Implementation Agreement IA # OIF-MLG-02.0 April 2013 Implementation Agreement created and approved by the Optical Internetworking Forum www.oiforum.com The OIF is an international non
More informationTAS APFC Controller / Load Managers with MOD-BUS Interface
TAS APFC Controller / Load Managers with MOD-BUS Interface Designed & Prepared by TAS PowerTek Pvt. Ltd., W-61, MIDC Ambad, Nasik-422010, India. Updated on: 4th June 2017, Sunday. Data Parameter Field
More informationUniversal-Transducer Multi-E11-MU
Universal-Transducer Multi-E11-MU Safety Informations Observe instructions! The device described in these instructions shall only be installed by a qualified electrician according to both EN 50110-1/-2
More informationOrbis true absolute rotary encoder
Issue 2, 8 th Novemeber 2017 Orbis true absolute rotary encoder Orbis TM is a true absolute rotary encoder suitable for applications where a typical Onxis encoder cannot be mounted at the end of the rotating
More informationInstallation and configuration manual DXCa Modbus RTU CAN Gateway V1.2
Installation and configuration manual DXCa Modbus RTU CAN Gateway V1.2 A1241 These operating instructions are only valid in conjunction with the complete operating instructions DULCOMARIN II Please carefully
More informationOSPF Version 3 for IPv6
OSPF Version 3 for IPv6 Modified: 2017-01-23 Juniper Networks, Inc. 1133 Innovation Way Sunnyvale, California 94089 USA 408-745-2000 www.juniper.net All rights reserved. Juniper Networks, Junos, Steel-Belted
More informationContents. Introduction and description Package contents Device identification PM Options... 80
Contents 1 Introduction and description Package contents... 77 Device identification... 77 2 Characteristics PM500... 78 Options... 80 3 Installation Front-panel cut-out... 82 Mounting... 82 4 Connections
More informationisma-b-w0202 Modbus User Manual GC5 Sp. z o.o. Poland, Warsaw
isma-b-w0202 isma-b-w0202 Modbus User Manual GC5 Sp. z o.o. Poland, Warsaw www.gc5.com 1. Introduction... 4 2. Safety rules... 4 3. Technical specifications... 5 4. Dimension... 6 5. LED Indication...
More informationParameter Value Unit Notes
Features Single axis measurement from ±5 to ±60 High resolution and accuracy. Low temperature drift, with optional temperature compensation to further improve temperature performance. RS232 and RS485 output
More information745 Transformer Protection System Communications Guide
Digital Energy Multilin 745 Transformer Protection System Communications Guide 745 revision: 5.20 GE publication code: GEK-106636E GE Multilin part number: 1601-0162-A6 Copyright 2010 GE Multilin GE Multilin
More informationSUPPLY NETWORK ANALYZER CVM-96 SERIES
SUPPLY NETWORK ANALYZER CVM-96 SERIES (Power Demand) INSTRUCTION MANUAL ( M 981 326 / 00B - GB) (c) CIRCUTOR S.A. ----- Supply network analyzer CVM-96 ------ User's manual --- Page No. 1 CVM-96 SUPPLY
More informationELECTRONIC METER MX2-A01E MX2-C01E MX2-C41E MX2-B41E MODBUS RTU Interface Specifications MDD-T0026
ELECTRONIC METER MX2-A01E MX2-C01E MX2-C41E MX2-B41E MODBUS RTU Interface Specifications SPEC. NO. : MDD-T0026 MITSUBISHI ELECTRIC AUTOMATION (THAILAND) CO., LTD CONTENTS 1. Functions 2 2. Checking before
More informationSecret Key Systems (block encoding) Encrypting a small block of text (say 128 bits) General considerations for cipher design:
Secret Key Systems (block encoding) Encrypting a small block of text (say 128 bits) General considerations for cipher design: Secret Key Systems (block encoding) Encrypting a small block of text (say 128
More informationCentrale de mesure Power Meter PM500 Merlin Gerin
Notice d'installation et d'utilisation Installation and user manual Centrale de mesure Power Meter PM500 Merlin Gerin 059473_D Introduction and description Package contents c one PM500 power meter with
More informationEIG DNP V3.0 Protocol Assignments
E Electro Industries/G augetech "The Leader in Web Accessed Power Monitoring" EIG DNP V3.0 Protocol Assignments For Futura+ and DM Series Power Monitors Version 1.14 July 15, 2003 Doc # E100-7-03 V1.14
More informationStart Address Function Data CRC End 3,5 bytes 8 bits 8 bits n x 8 bits 16 bits 3,5 bytes
MODBUS COMANDS 1.- Modbus protocol. The Modbus protocol is a communications standard in the industry which permits the network connection of multiple equipments, where exists a master and several slaves.
More informationInfraStruXure Manager v4.x Addendum: Building Management System Integration
InfraStruXure Manager v4.x Addendum: Building Management System Integration Introduction This addendum explains the integration of the APC InfraStruXure Manager Appliance with a Building Management System
More informationC191HM POWERMETER AND HARMONIC MANAGER COMMUNICATIONS REFERENCE GUIDE
C191HM POWERMETER AND HARMONIC MANAGER COMMUNICATIONS ASCII Communications Protocol REFERENCE GUIDE Every effort has been made to ensure that the material herein is complete and accurate. However, the
More informationModbus Registers Map- Conext CL 60E & CL 60A Three Phase PV Inverter 60 kw - 66 kva (E) / 63.4 kva (A) (Applicable to Both NA and IEC Model)
Modbus Registers Map- Conext CL 60E & CL 60A 60 kw - 66 kva (E) / 63.4 kva (A) (Applicable to Both NA and IEC Model) Page 1 of 14 Revision Approvals Approvals Rev Date Author TC Product Mgr Program Mgr
More informationPOWER ANALYZER CVM-MINI SERIES INSTRUCTION MANUAL M A CIRCUTOR, SA
POWER ANALYZER CVM-MINI SERIES INSTRUCTION MANUAL M98174001-03-15A CIRCUTOR, SA CONTENTS 1 BASIC INSTRUCTIONS... 3 1.1 Checks on receipt.... 3 1.2 Main features... 3 1.3 Electrical parameters... 3 1.4
More informationSOLAR-2 : Dual Axis Inclinometer, RS232 or RS485 Output
Features Dual axis measurement, range from ±5 to ±45 High resolution and accuracy Low temperature drift, with optional temperature compensation to further improve temperature performance. RS232 or multi-drop
More informationC Mono Camera Module with UART Interface. User Manual
C328-7221 Mono Camera Module with UART Interface User Manual Release Note: 1. 16 Mar, 2009 official released v1.0 C328-7221 Mono Camera Module 1 V1.0 General Description The C328-7221 is VGA camera module
More informationSOLAR-360 : 360 Inclinometer, RS232 or RS485 Output
Features Single axis measurement, range ±180 High resolution and accuracy Low temperature drift, with optional temperature compensation to further improve temperature performance. RS232 or multi-drop RS485
More informationCoolEx User Manual 2008 XDIMAX LTD. Revision 1.0
CoolEx User Manual Revision 1.0 2 CoolEx User Manual Table of Contents Foreword 0 Part I Overview 3 Part II Configuration and Setup 4 1 Terminals Layout... 4 2 Modbus Address... Switch 4 Part III Functional
More informationCopley ASCII Interface Programmer s Guide
Copley ASCII Interface Programmer s Guide PN/95-00404-000 Revision 4 June 2008 Copley ASCII Interface Programmer s Guide TABLE OF CONTENTS About This Manual... 5 Overview and Scope... 5 Related Documentation...
More informationOrbis true absolute rotary encoder
Issue 3, 12 th March 2018 Orbis true absolute rotary encoder Orbis TM is a true absolute rotary encoder suitable for applications where a typical Onxis encoder cannot be mounted at the end of the rotating
More informationOC-Servo Electronics Technology Co.,Ltd
ROBS-251 MANUEL Page 1 of 26 Chapter 1 Overview 1.1 Properties ROBS-251 is a robot servo developed and produced as a set of motor, servo drives, and modbus communication interface in an integrated servo
More informationTegra 710 and 810 Digital metering with RS485 Modbus TM o/p
Installation Guide Tegra 710 and 810 Digital metering with RS485 Modbus TM o/p Introduction This manual provides operating and installation instructions for the Tegra 710 and 810 multifunction digital
More informationJunos OS. OSPF Version 3 for IPv6 Feature Guide. Release Published: Copyright 2011, Juniper Networks, Inc.
Junos OS OSPF Version 3 for IPv6 Feature Guide Release 11.4 Published: 2011-11-08 Juniper Networks, Inc. 1194 North Mathilda Avenue Sunnyvale, California 94089 USA 408-745-2000 www.juniper.net This product
More informationUser's Manual. ServoCenter 4.1. Volume 2: Protocol Reference. Yost Engineering, Inc. 630 Second Street Portsmouth, Ohio
ServoCenter 4.1 Volume 2: Protocol Reference Yost Engineering, Inc. 630 Second Street Portsmouth, Ohio 45662 www.yostengineering.com 2002-2009 Yost Engineering, Inc. Printed in USA 1 Table of Contents
More informationEtherCAT Expansion Chassis
VENDOR CONFIGURATIONS GUIDE EtherCAT Expansion Chassis Deterministic Ethernet Expansion Chassis for C Series Modules This document contains information about accessing all of the functionality of the C
More informationELECTRICAL VARIABLE ANALYZER RELAY EVAR
ELECTRICAL VARIABLE ANALYZER RELAY EVAR 1 ORION ITALIA SERIES MODBUS PROTOCOL. The ORION ITALIA SERIES implement a subset of the AEG Modicon Modbus serial communication standard. Many devices support this
More informationSunSaver Duo MODBUS Specification. V March 2007
20 March 2007 Morningstar Corporation 1098 Washington Crossing RD Washington Crossing, PA 18977 www.morningstarcorp.com info@morningstarcorp.com Contents CONTENTS... 2 GENERAL INFORMATION... 3 PARAMETERS...
More informationDMM Technology Corp. DYN AC Servo Drive Modbus RTU Specification [DYNMB1-BL A ] Document Version 1.0A Published Sept 17, 2017
DMM Technology Corp. DYN AC Servo Drive Modbus RTU Specification [DYNMB1-BL1645-10A ] Document Version 1.0A Published Sept 17, 2017 March 02, 2017 Version 1.0 1. Overview The DYN2 and DYN4 servo drive
More informationSeries PM130 PLUS Powermeters PM130P/PM130E/PM130EH
Series PM PLUS Powermeters PMPPMEPMEH SATEC ASCII Communications Protocol eference Guide BG46 ev. A4 Every effort has been made to ensure that the material herein is complete and accurate. However, the
More informationNO WARRANTIES OF ANY KIND ARE IMPLIED ON THE INFORMATION CONTAINED IN THIS DOCUMENT.
MODBUS/BECO2200-M3425A Communication Data Base for M-3425A Integrated Protection System Device I.D. = 150 Specifications presented herein are thought to be accurate at the time of publication but are subject
More informationCNC 60/60S Series 64 PLC INTERFACE MANUAL BNP-B2211D(ENG)
CNC 60/60S Series 64 LC INTERFACE MANUAL N-2211D(ENG) MELDAS and MELDASMAGIC are registered trademarks of Mitsubishi Electric Corporation. Other company and product names that appear in this manual are
More informationAN2971 Application note
Application note Using the typical temperature characteristics of 32 KHz crystal to compensate the M41T83 and the M41T93 serial real-time clocks Introduction Typical real-time clocks employ 32 KHz tuning
More informationExpansion port CNT USER S GUIDE
OBSAH Expansion port CNT USER S GUIDE USED SYMBOLS Used symbols Danger important notice, which may have an influence on the user s safety or the function of the device. Attention notice on possible problems,
More informationENA33LCD. Power line analyzer. User and service manual. Obrezija 5 SI-1411 Izlake
ENA33LCD Power line analyzer User and service manual version 2.9 (FW version 6.8 and newer) ETI, d.o.o. Obrezija 5 SI-1411 Izlake www.etigroup.eu/products-services 1. Front control panel and terminal plate
More informationDelta Din-rail Power Meter DPM-D520I User Manual.
Delta Din-rail Power Meter DPM-D520I User Manual www.deltaww.com Table of Content 1. Preface 4 2. Notes 5 2.1 Safety Notes 5 2.2 Installation Environment 6 3. Descriptions of Parts 7 3.1 Operating Interface
More informationAN-1249 Application Note
One Technology Way P.O. Box 9106 Norwood, MA 02062-9106, U.S.A. Tel: 781.329.4700 Fax: 781.461.3113 www.analog.com Converting 3D Images to 2D Images Using the ADV8003 Evaluation Boards by Paul Slattery
More informationROTRONIC HygroClip Digital Input / Output
ROTRONIC HygroClip Digital Input / Output OEM customers that use the HygroClip have the choice of using either the analog humidity and temperature output signals or the digital signal input / output (DIO).
More informationUSART Digital Compass Manual
USART Digital Compass Manual General Description HMC1022-USART is a low cost plane digital compass module. The working principle is utilizing magnetoresistive sensor sensing the Earth's magnetic field
More informationMercury technical manual
v.1 Mercury technical manual September 2017 1 Mercury technical manual v.1 Mercury technical manual 1. Introduction 2. Connection details 2.1 Pin assignments 2.2 Connecting multiple units 2.3 Mercury Link
More informationTNM96-ETL Energy Meter & Electrical Powermeter
TNM96-ETL Energy Meter & Electrical Powermeter Celsa Messgeräte GmbH Barthelsmühlring 16, 76870 Kande - Germany Telefon: +49 7275 9883-0; Telefax: +49 7275 9883-33 Web: www.celsagermany.com; E-Mail: info@celsagermany.com
More informationAksIM rotary absolute encoder module
MBD01_06 Issue 6, 5 th June 2015 ksim rotary absolute encoder module ksim is a non-contact high performance off-axis absolute rotary encoder designed for integration into space-constrained applications.
More informationCommunication FU MANUAL. OBID i-scan. Communication Function Unit. FU (Function Unit) Reader. Function Unit Commands
OBID i-scan MANUAL Communication FU Communication Function Unit Function Unit Commands Reader FU (Function Unit) final public (B) 2008-01-07 H30701-3e-ID-B Copyright 2003-2005 by FEIG ELECTRONIC GmbH Lange
More informationBACnet Protocol Converter Kit for Use with Bacharach GDA-1600 Controller. Installation Manual
P/N: 5700-9002 Revision 0 October 2012 Protocol Converter Kit for Use with Bacharach GDA-1600 Controller Installation Manual 1. Scope The FieldServer ProtoNode is a protocol converter accessory for use
More informationCMPS09 - Tilt Compensated Compass Module
Introduction The CMPS09 module is a tilt compensated compass. Employing a 3-axis magnetometer and a 3-axis accelerometer and a powerful 16-bit processor, the CMPS09 has been designed to remove the errors
More informationPLA 33. Power line analyzer. User and service manual. version 2.4
PLA 33 Power line analyzer User and service manual version 2.4 Content. Front control panel and terminal plate...3 7.2.2. System frequency setting...0 2. Device description...4 7.2.3. Password protection...0
More informationPololu TReX Jr Firmware Version 1.2: Configuration Parameter Documentation
Pololu TReX Jr Firmware Version 1.2: Configuration Parameter Documentation Quick Parameter List: 0x00: Device Number 0x01: Required Channels 0x02: Ignored Channels 0x03: Reversed Channels 0x04: Parabolic
More informationAksIM rotary absolute encoder module
MBD01_07 Issue 7, 26 th February 2016 ksim rotary absolute encoder module ksim is a non-contact high performance off-axis absolute rotary encoder designed for integration into space-constrained applications.
More informationASCII Programmer s Guide
ASCII Programmer s Guide PN/ 16-01196 Revision 01 April 2015 TABLE OF CONTENTS About This Manual... 3 1: Introduction... 6 1.1: The Copley ASCII Interface... 7 1.2: Communication Protocol... 7 2: Command
More informationMulti-channel DC power digital isolation transducer manual CE-AD81-34MN3-0.5
Multi-channel DC power digital isolation transducer manual CE-AD81-34MN3-0.5 1 Overview The main function of this product is to centralized measurement convert multi-channel standard DC transmission signal
More informationPower Analyzer CVM-NRG96. User manual Extended version
Power Analyzer CVM-NRG96 User manual Extended version Checks on receipt. This manual assists in the installation and use of the CVM NRG 96 power analyzer so that the best possible use can be gained from
More informationAtmel AT42QT1111-MU AT42QT1111-AU
Atmel AT42QT1111-MU AT42QT1111-AU 11-key QTouch Touch Sensor IC DATASHEET Features Sensor Keys: Up to 11 QTouch channels Data Acquisition: Measurement of keys triggered either by a signal applied to the
More informationOHIO SEMITRONICS, INC. DIGITAL AC POWER MONITOR OSI SPECIFICATIONS
DIGITAL AC POWER MONITOR DESCRIPTION The DSP is a three-phase, three-element multifunction digital transducer with outputs for voltage, current, and power via serial communication. Applications include
More informationLA11 absolute magnetic encoder system
L11D01_05 Issue 5, 6 th July 2017 L11 absolute magnetic encoder system Track system L11 is an absolute magnetic linear encoder system designed for motion control applications as a position and velocity
More informationTP4-WT4 Serial Communications Output Addendum
TP4-WT4 Serial Communications Output Addendum AMALGAMATED INSTRUMENT CO PTY LTD ACN: 001 589 439 Unit 5, 28 Leighton Place Hornsby Telephone: +61 2 9476 2244 e-mail: sales@aicpl.com.au NSW 2077 Australia
More informationPMAC770 Multifunction Power Meter. Installation & Operation Manual V2.0 ZHUHAI PILOT TECHNOLOGY CO., LTD.
PMAC770 Multifunction Power Meter Installation & Operation Manual V2.0 ZHUHAI PILOT TECHNOLOGY CO., LTD. Danger and warning! This device can be installed only by professionals. The manufacturer shall not
More informationRTU560. Multimeter 560CVD03. Power Measuring Display. Characteristics. Application. Data Sheet Multimeter 560CVD03
Multimeter 560CVD03 Without LCD Display There are several versions available: With LCD Display Figure 1 Type Display LO HI 1A 5A Versions R0031 3U3I x x x R0035 3U3I x x x R0051 3U3I x x x R0055 3U3I x
More informationDIRIS Ap RS485 JBUS/MODBUS COM. Systèmes de Coupure et de Protection Industrial Switching and Protection Systems ON 1
DIRIS Ap RS485 JBUS/MODBUS F GB ON 1 D COM I NL E P Systèmes de Coupure et de Protection Industrial Switching and Protection Systems PRELIMINARY OPERATIONS NB: For personnel and product safety please read
More informationLine-to-line RMS Volts, 3 phases 4 digits (XXX.X) Volts
digital ac POWER MONITOR DESCRIPTION The DSP is a three-phase, three-element multifunction digital transducer with outputs for voltage, current, and power via serial communication. Applications include
More informationBack to. Communication Products Group. Technical Notes. Local/Remote Control, 9300 Series
Back to Communication Products Group Technical Notes 25T001 Local/Remote Control, 9300 Series MITEQ TECHNICAL NOTE 25T001 MAY 1995 REV G 1.0 LOCAL/REMOTE SELECTION LOCAL/REMOTE CONTROL 9300 SERIES CONVERTER
More informationVisa Smart Debit/Credit Certificate Authority Public Keys
CHIP AND NEW TECHNOLOGIES Visa Smart Debit/Credit Certificate Authority Public Keys Overview The EMV standard calls for the use of Public Key technology for offline authentication, for aspects of online
More informationRotel RSX-1056 RS232 HEX Protocol
Rotel RSX-1056 RS232 HEX Protocol Date Version Update Description February 2, 2012 1.00 Original Specification The RS232 protocol structure for the RSX-1056 is detailed below. This is a HEX based communication
More informationModbus communication module for TCX2: AEX-MOD
Modbus communication module for TCX2: Communication Specification TCX2 is factory installed in TCX2 series controllers with -MOD suffix, and is also available separately upon request for customer installation
More informationThe rangefinder can be configured using an I2C machine interface. Settings control the
Detailed Register Definitions The rangefinder can be configured using an I2C machine interface. Settings control the acquisition and processing of ranging data. The I2C interface supports a transfer rate
More informationUM7 DATASHEET INTRODUCTION FEATURES. Rev. 1.3 Released 10/27/2014
INTRODUCTION The UM7 is a 3rd-generation Attitude and Heading Reference System (AHRS) that takes advantage of state-ofthe-art MEMS teschnology to improve performance and reduce costs. Like its predecessors,
More informationE50 MODBUS POINT MAP
E50 MODBUS POINT MAP The E50C2 Full Data Set (FDS) features data outputs such as demand calculations, per phase VA and VAR, and VAh VARh accumulators. The E50C3 Data Logging model adds configuration registers
More informationmmint Modbus translator module installation and use
Instructional Leaflet IL66A7508H09 Supersedes July 2009 mmint Modbus translator module installation and use Contents Description Page List of figures... 2 List of tables.... 2 Section 1: General description...
More informationSiemens Automation. Power Meter SICAM P. Modbus. Manual E50417-B1076-C241-A5. Foreword, Contents. Preface 1. Bus-Specific Parameters 2
Power Meter SICAM P Modbus Manual Foreword, Contents Preface 1 Bus-Specific Parameters 2 Modbus Functions 3 Error Messages 4 Data Type Definitions 5 Register Map 6 Technical Data 7 Glossary 8 Siemens Aumation
More informationEM-72 Electricity Meters for Current Transformers
Product sheet MT8.18 Meter EM72 EM-72 Electricity Meters for Current Transformers EM72 electricty meters have been designed for panel mounting to monitor electricity consumption and the quality of the
More informationAksIM rotary absolute encoder module
MBD01_03 Issue 3, 5 th ugust 2014 ksim rotary absolute encoder module ksim is a non-contact high performance off-axis absolute rotary encoder designed for integration into space-constrained applications.
More informationApplication Notes. Infrared Array Sensor Grid-EYE 39-1 INDEX. 1. Outline 2 2. Appearance, Structure 2 3. Model #, Dimension 3
Infrared Array Sensor Grid-EYE 39-1 INDEX 1. Outline 2 2. Appearance, Structure 2 3. Model #, Dimension 3 3-1 System 3 3-2 List 3 3-3 Dimension 3 4. Features 4 5. Usage 5 5-1 Human Detection 5 5-2 Temp
More informationPeripheral Sensor Interface for Automotive Applications
Peripheral Sensor Interface for Automotive Applications Substandard Powertrain I Contents 1 Introduction 1 2 Definition of Terms 2 3 Data Link Layer 3 Sensor to ECU Communication... 3 3.1.1 Data Frame...
More informationInterfacing the 1724-Type Microprocessor-Controlled EDFA via a Serial Communication Port
Application Note Interfacing the 1724-Type Microprocessor-Controlled EDFA via a Serial Communication Port Introduction The 1724-type erbium-doped fiber amplifier (EDFA) is a precision, microprocessor-controlled,
More informationCarbon Dioxide (Tiny CO2) Gas Sensor. Rev TG400 User Manual
Carbon Dioxide (Tiny CO2) Gas Sensor Rev. 1.2 TG400 User Manual The TG400 measuring carbon dioxide (chemical formula CO2) is a NDIR (Non-Dispersive Infrared) gas sensor. As it is contactless, it has high
More informationXR21V1412 GENERAL DESCRIPTION 2-CH FULL-SPEED USB UART
2-CH FULL-SPEED USB UART JUNE 2009 REV. 1.0.0 GENERAL DESCRIPTION The (V1412) is an enhanced 2-channel Universal Asynchronous Receiver and Transmitter (UART) with a USB interface. The USB interface is
More informationMultimeter 500CVD21 RTU500 series
Remote Terminal Units - Data sheet Multimeter 500CVD21 RTU500 series CT/VT interface with 4 voltage and 24 current inputs for direct monitoring of 3/4 wire 0 300 V AC (line to earth), 0...500 V AC (phase
More information4111 Usage Minutes 1 Integer RO Y - Minutes 0-59 Y Y YP
Table of Contents 2 Setup & Status Y Y Y Metering Y Y Y Min Max Y Y Y Demand Y Y Y IO Y Y Y Alarms N N Y Reset Commands Y Y Y DL System Y Y Y Notes Y Y Y 5 Setup & Status 24 Usage Hours 2 Float RO Y -
More informationUSER MANUAL S203T. Via Austria, PADOVA ITALY. Tel Fax
USER MANUAL S203T SENECA s.r.l. Via Austria, 26 35127 PADOVA ITALY Tel. +39.049.8705355 8705359 Fax. +39.049.8706287 Web site: www.seneca.it Technical assistance: supporto@seneca.it (IT), support@seneca.it
More informationI-7088, I-7088D, M-7088 and M-7088D User Manual
I-7088, I-7088D, M-7088 and M-7088D User Manual I-7000 New Features 1. Internal Self Tuner 2. Multiple Baud Rates 3. Multiple Data Formats 4. Internal Dual WatchDog 5. True Distributed Control 6. High
More informationPM-PA/PM-PAC POWER ANALYZER
PM-PA/PM-PAC POWER ANALYZER 1. INTRODUCTION Power Analyzer is an ideal device to control measure and monitor all electrical parameters of a system. Thanks to its four display rows, all parameters can be
More informationBlinkRC User Manual. 21 December Hardware Version 1.1. Manual Version 2.0. Copyright 2010, Blink Gear LLC. All rights reserved.
BlinkRC 802.11b/g WiFi Servo Controller with Analog Feedback BlinkRC User Manual 21 December 2010 Hardware Version 1.1 Manual Version 2.0 Copyright 2010, Blink Gear LLC. All rights reserved. http://blinkgear.com
More informationBVW Series DVW Series DNW Series HDW Series
VIDEO CASSETTE RECORDER/PLAYER BVW Series DVW Series DNW Series HDW Series PROTOCOL OF REMOTE (9-pin) CONNECTOR 2nd Edition (Revised 5) Table of Contents. Interface System Overview... 2. Command Block
More informationSee notes for calculations 4110 Usage Hours 1 Integer RO Y - Hours YP Usage Minutes 1 Integer RO Y - Minutes 0-59 YP
Table of Contents 2 FW Release summary Y Y Y Y Y Y PM RS FW History Y Y Y PM_2 OS FW History Y Y Y PM_2 RS FW History Y Y Y Setup & Status Metering Min Max Demand IO Alarms N N Reset Commands DL System
More informationH8238/MCM MODBUS POINT MAP
H8238/MCM MODBUS POINT MAP F O R M A T Int Float R/W NV Description 1 257/258 R/W NV Energy Consumption, kwh, Low-word integer 2 259/260 R/W NV Energy Consumption, kwh, High-word integer Both 257/258 and
More informationnew! nd30 - METER OF POWER NETWORk PARAMETERS EXAMPlE OF APPliCATiON MEASUREMENT AND ViSUAliZATiON OF POWER NETWORk PARAMETERS
new! cat iii Electrical Safety nd30 - METER OF POWER NETWORk PARAMETERS Measurement of power network parameters in 3- or 4-wire balanced and unbalanced systems. Color graphic display: lcd TFT 3,5, 320
More informationMetasys Integrator ESAM E as VND device Application
Systems Integration Services Europe Application Note Issue Date 0203 APPLICATION NOTE Metasys Integrator ESAM E742002 as VND device Application Introduction 2 Systems Integration Services Europe Contacts
More information