ANR96 Modbus RTU Protocol - Abb

INSTRUCTION MANUAL IM145-U-A v5.8

ANR ELECTRICAL MULTIFUNCTION ANALYZER RECORDER COMMUNICATION PROTOCOL • ASCII standard ANR • MODBUS-RTU

INSTRUCTION MANUAL IM 145-U-A v. 5.8 Firmware Vers. X.11.1E

ANR protocol communication

instruction manual

IM145-U v5.8

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For other communication protocol available on ANR analyzer please to see specific instruction manual. Optional communication protocol available are: • PROFIBUS-DP • ethernet TCP/IP

For other communication protocol please contact our service.


instruction manual

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INDEX 1)

ASCII STANDARD ANR COMMUNICATION PROTOCOL ..................................4 1.1) ANR SERIAL COMMUNICATION PROTOCOL ...............................................4 1.2) IDENTIFICATION SEQUENCE.........................................................................4 1.3) DATA REQUEST SEQUENCE (R = Request or Reading) .............................4 1.4) PARAMETER SETTING SEQUENCE ..............................................................7 1.5) CHECK CHARACTERS....................................................................................8 1.6) VARIABLES (Reading codes).........................................................................9 1.7) PROGRAMMABLE PARAMETERS (Writing codes) ....................................13 1.8) PROGRAMMABLE PARAMETERS (Writing codes crescent order) ..........19 1.9) ERROR MESSAGES ......................................................................................21 1.10) NOTES ............................................................................................................21 2) MODBUS-RTU COMMUNICATION PROTOCOL ...............................................22 2.1) MODBUS PROTOCOL ...................................................................................22 2.2) READING OF THE REGISTERS ( Function Code $ 03)...............................24 2.3) SETUP OF THE ANR PARAMETERS (Function Code $ 10 ) ......................26 2.4) ERROR MESSAGE FROM SLAVE TO MASTER ..........................................27 2.5) DIAGNOSTIC (Function Code $ 08) .............................................................28 2.6) REPORT SLAVE ID (Function Code $ 11)....................................................29 2.7) TABLE OF ANR REGISTERS ........................................................................30 2.8) EXAMPLE OF READING AND SETUP REGISTERS ....................................56 2.9) TROUBLESHOOTING ....................................................................................65 2.10) NOTES ............................................................................................................65


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1) ASCII STANDARD ANR COMMUNICATION PROTOCOL 1.1) ANR SERIAL COMMUNICATION PROTOCOL Serial communication occurs between a device and a Host computer according to a master-slave model, in which the device is configured as the slave. The communication through a defined protocol is carried out on a single line (half duplex), meaning that messages are sent in to opposite directions in different time. The device places itself in a reception mode when it receives a STX (Start of TeXt) character; and it remains in this condition until it receives an ETX (End of TeXt) character. The characters used for the communication are all part of the ASCII (American Standard Code for Information Interchange ) 1.2) IDENTIFICATION SEQUENCE For a multi-drop connection, each slave must have a specific code in order to be identified by the Host device, avoiding errors on the communication line. To avoid communication errors and to optimize the line speed the operator may assign to each unit a logical number (address or node) Beside of the possibility to identify the device through a logical number the operator may assign to the slave a serial number instead (serial number is assigned by the manufacturer). Suggested is to assign a logical number in order to speed-up the whole communication process. 1.3) DATA REQUEST SEQUENCE (R = Request or Reading) To start a sequence of data request the operator may proceed in the following order: EXAMPLE 1: 01R80 (5AH) Start block character 01 Instrument identification R80 Command End block character (5AH) Check character Start block character Always (02H) begins the string of block character or message Instrument identification The instrument identification is represented through its logical number, address/node expressed in hexadecimals code (01-FF). Command The command to be sent is always expressed with the character R (52H), which means Read, followed by the variable numbers, expressed in hexadecimals. End block character Always (03H) ends the string of block character or message. Check character This characters is obtained from the addition of the XOR logical functions, normally this check is used to verify the transmitted data.


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EXAMPLE 1 (of calculated Check Character): If the reading of rms voltage measured by the ANR shall be initialized than the following process may be followed: If 01R80 (5AH) is the message to be sent than: STX 0 1 R 8 0 ETX

02H XOR 30H XOR 31H XOR 52H XOR 38H XOR 30H XOR 03H = BCC= 5AH H stays for Hexadecimal DATA ANSWERING SEQUENCE of EXAMPLE 1 The unit which recognizes the own serial number or logical address/node, answers with the following message: +400.0 Start block character +400.0 Data block End block character Check character ( = SPACE =20H) Start block character Always (02H) begins the string of block character or message Data block The data block is the parameter value and can represent the following: Example 1: +400.0 is the answer of variable number request 81, 82 or 83. , multiplier (×1). The multiplier may be the following: space (×1) k Kilo (×1000) M Mega (×1000000) G Giga (×1000000000)

Example: +400.0 Example: +123.456k Example: +1.256M Example: +12.4G

End block character Always (03H) ends the string of block character or message. Check character This characters is obtained from the addition of the XOR logical functions, normally this check is used to verify the transmitted data. The ANR, if questioned, will reply, if the conditions BCC ( Block Check Character) is satisfied, with the following message to the operator: +400.0(20H)


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EXAMPLE 2: 01RD1 (27H) Start block character 01 Instrument identification RD1 Command End block character (27H) Check character Start block character Always (02H) begins the string of block character or message Instrument identification The instrument identification is represented through its logical number, address/node expressed in hexadecimals code (01-FF). Command The command to be sent is always expressed with the character R (52H), which means Read, followed by the variable numbers, expressed in hexadecimals. End block character Always (03H) ends the string of block character or message. Check character This characters is obtained from the addition of the XOR logical functions, normally this check is used to verify the transmitted data. EXAMPLE 2 (of calculated Check Character): If the reading of 15’ average power stored in the RAM of ANR shall be initialized than the following process may be followed: If 01RD1 (27H) is the message to be sent than: STX 0 1 R D 1 ETX

02H XOR 30H XOR 31H XOR 52H XOR 44H XOR 31H XOR 03H = BCC=27H H stays for Hexadecimal DATA ANSWERING SEQUENCE of EXAMPLE 2 The unit answers with an error message: E014(71H) E014, error E014 indicates that the 15’ average power were not stored, impossible answering to the Host, message is over.


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1.4) PARAMETER SETTING SEQUENCE Setting sequence is always carried-out by a Host device in order to change specific parameters, if necessary, on the instrument. As parameter setting sequence the operator may change from the Host device all the settings of the instrument as KTA, KTV, P av., B. Light, Date-Time I/O etc. The following operation must be considered when sending the parameter setup to the unit: SANR100001W04=01(74H) Always (02H) begins the string of block character or message. SANR100001 The character S (53H) is followed by the serial number (identification number) of the instrument or by the logical number. If serial number is chosen than maximum 9 characters must be defined, if logical number is chosen than 2 character in hexadecimal (01-FF) must be defined. W04= The command W (57H) means Write followed by the variable number to be set, expressed in decimals characters and always followed by the character = (3DH). 01 The new alphanumerical value, which is going to be programmed on the instrument. Always (03H) ends the string of block character or message. EXAMPLE 1: Logical Number Setting (01, expressed in hexadecimal) of ANR with serial number ANR100001. SANR100001W04=01 The BCC (Check Character is calculated as following: STX 02H XOR S 53H XOR A 41H XOR N 4EH XOR R 52H XOR 1 31H XOR 0 30H XOR 0 30H XOR 0 30H XOR 0 30H XOR 0 31H XOR W 57H XOR 0 30H XOR 4 34H XOR = 3DH XOR 0 30H XOR 1 31H XOR ETX 03H = BCC = 60H


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DATA ANSWERING SEQUENCE of EXAMPLE 2 Once the setting were identified by the instrument, the following messages will be sent from the instrument to the Host: E000 (74H) where, Always (02H) begins the string of block character or message. E000 Error message, E (45H), followed by 3 numerical characters which shows the type of error, see chapter 1.9) Code E000 indicates that the operation has been carried out correctly. Always (03H) ends the string of block character or message. (74H) Check character is obtained from the addition of the XOR logical functions, normally this check is used to verify the transmitted data. 1.5) CHECK CHARACTERS Start of Text (02H) Start of text characters. End of Text(03H) End of text characters. BCC Block Check Character It is represented by a 2 digit characters, resulting from EXCLUSIVE OR (XOR) of all the characters from up to, including, , used to verify the transmitted data.


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1.6) VARIABLES (Reading codes) N.Var Description 000 INFO STORAGE AVG.POWERS 001 INFO STORAGE MIN./MAX. 002 INFO STORAGE HARMONICS INFO STORAGE SAMPLES Answer format: srrrrraaaa.auuuu.uffff.f(BCC) s=status (0=OFF; 1=ON) 003 rrrrr=number of stored records aaaa.a=memory available for archive (KB) uuuu.u=memory used by archive (KB) ffff.f=memory free for archive (KB) 004 NEUTRAL CURRENT 005 3-PHASE SYSTEM ACTIVE ENERGY (acquired) (double format) 006 3-PHASE SYSTEM ACTIVE ENERGY (transferred) (double format) 007 3-PHASE SYSTEM REACTIVE ENERGY (inductive) (double format) 008 3-PHASE SYSTEM REACTIVE ENERGY (capacitive) (double format) HW & OPTIONS INFO Return an integer 16bit value. Bit0: harmonic (0=disabled; 1=enabled) Bit1: timebandds (0=disabled; 1=enabled) 009 Bit2÷3: reserved Bit4÷7: number of Digital Input (0÷15) Bit8÷11: number of Digital Output (0÷15) Bit12÷15: number of Analog Output (0÷15) 010 AVERAGE REACTIVE POWER 011 AVERAGE LINE 1 CURRENT 012 AVERAGE LINE 2 CURRENT 013 AVERAGE LINE 3 CURRENT 016 PWM OUT ANALOG 1 017 PWM OUT ANALOG 2 018 PWM OUT ANALOG 3 019 PWM OUT ANALOG 4 0=0mA ÷255=20mA 021 TOTAL ENERGY BAND 1 022 TOTAL ENERGY BAND 2 023 TOTAL ENERGY BAND 3 024 TOTAL ENERGY BAND 4 Answer format: Wh+>Wh->Varh+>Varh-(BCC) 032 GENERIC COUNTER 1 VALUE 033 GENERIC COUNTER 2 VALUE 034 GENERIC COUNTER 3 VALUE 035 GENERIC COUNTER 4 VALUE 036 GENERIC COUNTER 5 VALUE 037 GENERIC COUNTER 6 VALUE 038 GENERIC COUNTER 7 VALUE 039 GENERIC COUNTER 8 VALUE 040 GENERIC COUNTER 1 SETTING 041 GENERIC COUNTER 2 SETTING 042 GENERIC COUNTER 3 SETTING 043 GENERIC COUNTER 4 SETTING 044 GENERIC COUNTER 5 SETTING 045 GENERIC COUNTER 6 SETTING 046 GENERIC COUNTER 7 SETTING


instruction manual

IM145-U v5.8

Command R00 R01 R02

R03

R04 R05 R06 R07 R08

R09

R0A R0B R0C R0D R10 R11 R12 R13 R15 R16 R17 R18 R20 R21 R22 R23 R24 R25 R26 R27 R28 R29 R2A R2B R2C R2D R2E pag. 9 / 65

047

128 129 130 131 132 133 134 136 137 138 139 140 141 142 144 145 146 147 148 149 150 151 152 153 154 155 160 161 162 163 168 169 170 171 176 177 178 179 180 182 183 184 185 186 188 192

GENERIC COUNTER 8 SETTING Answer format: ijusernamek(BCC) i=Digital Input associated to the counter j=name index (0=kWh+; 1=kWh-; 2=kVARh+; 3=kVArh-; 4=Water; 5=Gas; 6=user name username= counter’s name defined by the user (xxxxxxxx) k=pulse’s weight (00000.00) THREE-PHASE SYSTEM VOLTAGE (rms) PHASE L1 VOLTAGE (rms) PHASE L2 VOLTAGE (rms) PHASE L3 VOLTAGE (rms) PHASE L1-L2 VOLTAGE (rms) PHASE L2-L3 VOLTAGE (rms) PHASE L3-L1 VOLTAGE (rms) THREE-PHASE SYSTEM CURRENT (rms) LINE L1 CURRENT (rms) LINE L2 CURRENT (rms) LINE L3 CURRENT (rms) THD IL1(Total Harmonic Distortion %) THD IL2(Total Harmonic Distortion %) THD IL3(Total Harmonic Distortion %) THREE-PHASE SYSTEM POWER FACTOR PHASE L1 POWER FACTOR PHASE L2 POWER FACTOR PHASE L3 POWER FACTOR 3-PHASE SYSTEM COSFI PHASE L1 COSFI PHASE L2 COSFI PHASE L3 COSFI 3-PHASE SYSTEM APPARENT POWER PHASE L1 APPARENT POWER PHASE L2 APPARENT POWER PHASE L3 APPARENT POWER 3-PHASE SYSTEM ACTIVE POWER PHASE L1 ACTIVE POWER PHASE L2 ACTIVE POWER PHASE L3 ACTIVE POWER 3-PHASE SYSTEM REACTIVE POWER PHASE L1 REACTIVE POWER PHASE L2 REACTIVE POWER PHASE L3 REACTIVE POWER 3-PHASE SYSTEM ACTIVE ENERGY (acquired) 3-PHASE SYSTEM REACTIVE ENERGY (inductive) 3-PHASE SYSTEM ACTIVE ENERGY (transferred) 3-PHASE SYSTEM REACTIVE ENERGY (capacitive) FREQUENCY THD VL1(Total Harmonic Distortion %) THD VL2(Total Harmonic Distortion %) THD VL3(Total Harmonic Distortion %) AVERAGE POWER AVERAGE CURRENT INTERNAL TEMPERATURE VARIABLE GROUP FROM 128 TO 185 Received variables are: (128, 129, 130, 131, 132, 133, 134, 136, 137, 138, 139, 144, 145, 146, 147, 152, 153, 154, 155, 160, 161, 162, 163, 168, 169, 170, 171, 176, 177, 178, 179, 180, 182, 183, 184, 185)


instruction manual

IM145-U v5.8

R2F

R80 R81 R82 R83 R84 R85 R86 R88 R89 R8A R8B R8C R8D R8E R90 R91 R92 R93 R94 R95 R96 R97 R98 R99 R9A R9B RA0 RA1 RA2 RA3 RA8 RA9 RAA RAB RB0 RB1 RB2 RB3 RB4 RB6 RB7 RB8 RB9 RBA RBC RC0

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208

Variable group programmable by the operator

RD0

Refer to variable D0.

First stored value in RAM of average power 209

Average power transfer, at the end of the received block, it is necessary to confirm the command W06 to the unit when the block has been received correctly; repeat transfer steps until all blocks has been transferred.

RD1

FIRST STORED VALUE OF HARMONICS 211

Harmonics transfer, at the end of the received block, it is necessary to confirm the command W0B to the unit when the block has been received correctly; repeat transfer steps until all blocks has been transferred.

214

The command transfers a list of selected variables stored in RAM to download it. Transfer the stored values with command RD7.

INFO SAMPLES

RD3 RD6

SAMPLES VALUES STORED IN RAM 215

Samples transfer, at the end of the received block, it is necessary to confirm the command W1D to the unit when the block has been received correctly; repeat transfer steps until all blocks has been transferred.

216

The command transfers a list of selected variables stored in RAM to download it. Transfer the stored values with command RD9.

DATA BLOCK FORMAT RELATIVE TO RD9

RD7 RD8

MIN/MAX VALUES STORED IN RAM 217 218 219 221 222 223 225 227 228 229 230 231 232 233 234 235 236 237 238 239 240 241 242 244 245 246

Min/Max transfer, at the end of the received block, it is necessary to confirm the command W08 to the unit when the block has been received correctly; repeat transfer steps until all blocks has been transferred.

ENERGY TYPE (normal/heavy) 0=normal (kWh-kVArh); 1=heavy (MWh-MVArh) DIGITAL INPUT TYPE 0=not used; 1=sync.rtc; 2=periods; 3=generic counters; 4=GMC; 5=GME; 6=ELKO DIGITAL OUTPUT STATUS bit(n) associated to DigOut(n+1) n=0..5 bit values: 0=OFF; 1=ON DIGITAL INPUT STATUS bit(n) associated to DigIn(n+1) n=0..5 bit values: 0=OFF; 1=ON WIRING MODE 0= 4Wire; 1= 3Wire; 2= Aron All MIN/MAX values displayed on the instrument All values are transferred in the same order as they are displayed on the instrument.

SERIAL NUMBER MIN/MAX THREE-PHASE SYSTEM VOLTAGE MIN/MAX PHASE VOLTAGE L1 MIN/MAX PHASE VOLTAGE L2 MIN/MAX PHASE VOLTAGEL3 MIN/MAX THREE-PHASE SYSTEM CURRENT MIN/MAX LINE CURRENT L1 MIN/MAX LINE CURRENT L2 MIN/MAX LINE CURRENT L3 MIN/MAX 3-PHASE SYSTEM ACTIVE POWER MIN/MAX 3-PHASE SYSTEM APPARENT POWER MIN/MAX 3-PHASE SYSTEM POWER FACTOR MIN/MAX AVERAGE POWER DATE (dd/mm/yy) TIME (hh/mm/ss) DAY OF THE WEEK (i.e. Saturday, 10 characters) ALL BAND ENERGY COUNTERS Relative to: Year, Previous Year. ALL BAND ENERGY COUNTERS Relative to: Today, Yesterday, This Month, Previous Month. SAMPLINGS RELATIVE TO THE VOLTAGE SIGNAL PHASE 1,2 AND 3 Answer format: 768 characters (64samples x 4characters x 3 voltages) (BCC)


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IM145-U v5.8

RD9 RDA RDB RDD RDE RDF RE1 RE3 RE4 RE5 RE6 RE7 RE8 RE9 REA REB REC RED REE REF RF0 RF1 RF2 RF4 RF5 RF6 pag. 11 / 65

247 248 249 250 251

SAMPLINGS RELATIVE TO THE CURRENT SIGNAL PHASE 1,2 AND 3 Answer format: 768 characters (64samples x 4characters x 3 currents) (BCC)

INSTRUMENT FIRMWARE RELEASE INSTANT VALUES OF VOLTAGE PHASE 1 HARMONICS Answer format: 160 characters (00000 + 31harmonics x 5characters)(BCC) The first 00000 is only for internal uses.

INSTANT VALUES OF VOLTAGE PHASE 2 HARMONICS Answer format: 160 characters (00000 + 31harmonics x 5characters)(BCC) The first 00000 is only for internal uses.

INSTANT VALUES OF VOLTAGE PHASE 3 HARMONICS Answer format: 160 characters (00000 + 31harmonics x 5characters)(BCC) The first 00000 is only for internal uses.

INSTANT VALUES OF CURRENT PHASE 1 HARMONICS

252

Answer format: 160 characters (00000 + 31harmonics x 5characters)(BCC) The first 00000 is only for internal uses.

253

Answer format: 160 characters (00000 + 31harmonics x 5characters)(BCC) The first 00000 is only for internal uses

254 255

INSTANT VALUES OF CURRENT PHASE 2 HARMONICS INSTANT VALUES OF CURRENT PHASE 3 HARMONICS

RF7 RF8 RF9 RFA RFB RFC RFD

Answer format: 160 characters (00000 + 31harmonics x 5characters)(BCC) The first 00000 is only for internal uses.

RFE

SUB-VERSION FIRMWARE

RFF


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1.7)

PROGRAMMABLE PARAMETERS (Writing codes) SERIAL COMMUNICATION

000

format: (Baud rate, Parity, Bit, Stop) Baud Rate 1200, 2400, 4800, 9600, 19200 Parity N=None, E=Even, O=Odd Bit 7, 8 Stop 1, 2 Ex.: W00=9600,N,8,1

W00

LOGICAL ADDRESS

W04

004

Range of value: 00÷ff (0÷255) Ex.: W04=1b

009

Format: (yymmddhhmmssD) D = day of the week ( 1 = Monday……..7 = Sunday)

010

00-23:hour of the change 24: disabled

024

Range: 1÷99 (min.) Ex.: W18=15

027

Range: 1÷360 (seconds) 0: always on Ex.: W1B=60

DATE/TIME/DAY

W09

SOLAR/SUMMER TIME HOUR CHANGE

W0A

INTEGRATION TIME FOR AVERAGE POWER CALCULATION

W18

BACKLIGHT ON TIME (seconds) W1B

FREQUENCY MEASURING RANGE 028

016 018 006 007 008 011 029 015

Format: s,ffff s: synchronization type (0 = internal, 1 = external from V-L1) ffff: frequency*100 Range: 5÷500 Hz Ex.: W1C=0,5000 (50.00 Hz internal)

W1C

TRANSFORMING RATIO CT

W10

Range: 0.01÷9999.99 Ex.: W10=100.00

TRANSFORMING RATIO VT

W12

Range: 0.01÷9999.99 Ex.: W12=1000.00

DELETING OF THE FIRST BLOCK OF VALUES OF AVERAGE POWER STORED IN RAM DELETING ALL MIN/MAX VALUES STORED IN RAM DELETING OF THE FIRST BLOCK OF VALUES OF VALUE OF MIN/MAX STORED IN RAM DELETING OF THE FIRST BLOCK OF VALUES OF HARMONIC STORED IN RAM DELETING THE FIRST BLOCK OF VALUES OF SAMPLES STORED IN RAM DELETING OF ALL VALUES STORED IN RAM Ex.: W0F=00

W06 W07 W08 W0B W1D W0F

PROGRAMMING, ERASING OF THE VALUES STORED IN RAM 020

1 or 0, 15' Av. Power storing 1 = YES, 0 = NO 1 or 0, Min/Max storing 1 = YES, 0 = NO 1 or 0, Harmonics storing 1 = YES, 0 = NO 1 or 0 Sample values storing 1 = YES, 0 = NO Ex.: for storing Min/Max W14=0,1,0,0

W14

PROGRAMMING MIN/MAX AND SAMPLES CAMPAIGN ACQUISITION

021

Ex. MIN/MAX values storing 1: MIN/MAX storing 0060 : sampling rate for MIN/MAX storing expressed in minutes. E4...EF : MIN/MAX variable to store in RAM W15=1,0060,E4E5E6E7E8E9EAEBECEDEEEF Ex. Sample values storing 2: Sample storing 0010 : sampling rate for Sample storing expressed in seconds. 80...A8 : Variable number to store in RAM W15=2,0010,80818283889098A0A8

W15

ENERGY RESET 031

43000: energy values (B0, B1, B2, B3) reset 75000: time-band energy reset 75430: all energy values reset Ex.: W1F=75000


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W1F

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DIGITAL OUTPUT 1 PULSE 032

Format: B0 : variable to associate (hex.) 0.125: pulse coefficient (kWh ÷ kVARh); range: 0÷10.00 250: pulse duration time (msec.); range: 50÷500 Ex.: W20 = B0,0.125,250

W20

THRESHOLD

033

Format: A0 : variable to associate (hex.) L : Lower limit H : Higher limit N : Always on 5000 : intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 30 : delay time on threshold intervention (seconds); range: 0÷999 Ex.: W21 = A0,H,5000,15,30

W21

BAND 056

Format: 81: variable to associate B: Band 100: min intervention value 300: max intervention value 15: hysteresis percentage value (intervention threshold); range: 0÷99 30: delay time on threshold intervention (seconds); range: 0÷999 Ex.: W38 = 81,B,100,300,15,30

W38


Format: B0 : variable to associate 0.125 : pulse coefficient (kWh ÷ kVARh); range: 0÷10.00 250 : pulse duration time (msec.); range: 50÷500 Ex. W30 = B0,0.125,250

W30

THRESHOLD

049

Format: A0 : variable to associate L : Lower limit H : Higher limit N : Always on 200000 : intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 30 : delay time on threshold intervention (seconds); range: 0÷999 Ex. W31 = A0,H,200000,15,30

W31

BAND 057

Format: 82 : variable to associate B : Band 10.55 : min intervention value 20 : max intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 30 : delay time on threshold intervention (seconds); range: 0÷999 Ex.: W39 = 82,B,10.55,20,15,30


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W39

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Format B0 : variable to associate 0.125 : pulse coefficient (kWh ÷ kVARh); range: 0÷10.00 250 : pulse duration time (msec.); range: 50÷500 Ex. W24 = B0,0.125,250

W24

THRESHOLD

037

Format: 98 : variable to associate L : Lower limit H : Higher limit N : Always on 0.90 : intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 20 : delay time on threshold intervention (seconds); range: 0÷999 Ex. W25 = 98,L,0.90,15,20

W25

BAND 062

Format: A0 : variable to associate B : Band 1000 : min intervention value 15000 : max intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 30 : delay time on threshold intervention (seconds); range: 0÷999 Ex.: W3E = A0,B,1000,15000,15,30

W3E



W26

THRESHOLD

039


W27

BAND 059

Format: 88 : variable to associate B : Band 10 : min intervention value 150 : max intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 30 : delay time on threshold intervention (seconds); range: 0÷999 Ex.: W3B = 88,B,10,150,15,30


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W3B

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Format: B0 : variable to associate 0.125 : pulse coefficient (kWh ÷ kVARh); range: 0÷10.00 250 : pulse duration time (msec.); range: 50÷500 Ex. W26 = B0,0.125,250

W28

THRESHOLD

041


W29

BAND 060

Format: 89 : variable to associate B : Band 10.5 : min intervention value 15.5 : max intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 30 : delay time on threshold intervention (seconds); range: 0÷999 Ex.: W3C = 89,B,10.5,15.5,15,30

W3C



W2A

THRESHOLD

043


W2B

BAND 061

Format: A8 : variable to associate B : Band -10000 : min intervention value 15000 : max intervention value 15 : hysteresis percentage value (intervention threshold); range: 0÷99 30 : delay time on threshold intervention (seconds); range: 0÷999 Ex.: W3D = A8,B,-10000,15000,15,30

W3D

ANALOG OUTPUT 1 ANALOG 035

Format: 80 : variable to associate (hex.) 0/4: 0 : Mono-directional output 0-20mA 4 : Mono-directional output 4-20mA 100 : minimum value. 300.50 : maximum value. Ex. W23 = 80,0,100,300.50

W23


Format: 80 : variable to associate 0/4: 0 : Mono-directional output 0-20mA 4 : Mono-directional output 4-20mA 00.00 : minimum value. 30.00 : maximum value.


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W33

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Ex. W33 = 80,4,100,300


Format: A8 : variable to associate 0/4: 0 : Mono-directional output 0-20mA 4 : Mono-directional output 4-20mA 100 : minimum value. 300 : maximun value. Ex. W34 = A8,0,100,300

W34


079

Format: A8 : variable to associate 0/4: 0 : Mono-directional output 0-20mA 4 : Mono-directional output 4-20mA 100 : minimum value. 300 : maximum value. Ex. W35 = A8,4,100,300

W35

MIN/MAX VALUES RESET

W4F

Ex.: W=00

VARIABLE PROGRAMMING 50 080

If less than 5 values are programmed, than replace the not used values with FF. Ex.: 0AW50=81, 98, A8, B0, B4(6AH) Ex.: 0AW50=80, C0, FF, FF, FF(64H) 81,98, A8, B0, B4 are single values C0 is variable groups FF is used to replace the values which wants not to be read.

W50

TARIFF PROGRAMMING 081

065 066 067 068

Format: 1: Tariff period (1 = period 1, 2 = period 2, …….A = period 10) hhmmb : start time - band (Start hh:mm) and b band (0 = band1, 1 = band2, 2 = band3, 3 = band4) D: Day of the week, days are in the following order: Mon,Tue,Wed,Thu,Fri,Sat,Sun - 0=day disabled, 1=day enabled M : Month selection (Jan, Feb, Mar, Apr…….Dec) 0 = month disabled, 1 = month enabled Ex.: W51=105000060010700208003090001000111002120031111100111000000111 |p| 1b | 2b | 3b | 4b | 5b | 6b | 7b | 8b | day | month |

ENERGY COUNTER PRESET 3-PHASE SYSTEM ACTIVE ENERGY (acquired) (double format) 3-PHASE SYSTEM ACTIVE ENERGY (transferred) (double format) 3-PHASE SYSTEM REACTIVE ENERGY (inductive) (double format) 3-PHASE SYSTEM REACTIVE ENERGY (capacitive) (double format)

W51

W65 W66 W67 W68

ENERGY TYPE 090

0=normal (kWh-kVArh) 1=heavy (MWh-MVArh) Ex.:W5A=1

W5A

DIGITAL INPUT TYPE 091

0= not used; 1= sync. Rtc 2= periods 3= generic couters 4= GMC 5= GME 6= ELKO Ex: W5B=1

W5B

WIRING MODE 095

0= 4 wire 1= 3 wire 2= Aron Ex: W5F=2


W5A

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GENERIC COUNTER 160 161 162 163 164 165 166 167

GENERIC COUNTER 1 VALUE GENERIC COUNTER 2 VALUE GENERIC COUNTER 3 VALUE GENERIC COUNTER 4 VALUE GENERIC COUNTER 5 VALUE GENERIC COUNTER 6 VALUE GENERIC COUNTER 7 VALUE GENERIC COUNTER 8 VALUE

WA0 WA1 WA2 WA3 WA4 WA5 WA6 WA7

Ex: WA0=10000000.0

168 169 170 171 172 173 174 175

GENERIC COUNTER 1 SETTING GENERIC COUNTER 2 SETTING GENERIC COUNTER 3 SETTING GENERIC COUNTER 4 SETTING GENERIC COUNTER 5 SETTING GENERIC COUNTER 6 SETTING GENERIC COUNTER 7 SETTING GENERIC COUNTER 8 SETTING

WA8 WA9 WAA WAB WAC WAD WAE WAF

Format: WAx=Ijusernamek i=Digital Input associated to the counter j=name index (0=kWh+; 1=kWh-; 2=kVARh+; 3=kVArh-; 4=Water; 5=Gas; 6=user name username= counter’s name defined by the user (xxxxxxxx) k=pulse’s weight (00000.00) Ex. WA8=1 6 LEVEL1 00001.0


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1.8)

PROGRAMMABLE PARAMETERS (Writing codes crescent order)

000 004

SERIAL COMMUNICATION LOGICAL ADDRESS DELETING OF THE FIRST BLOCK OF VALUES OF AVERAGE POWER STORED IN RAM DELETING ALL MIN/MAX VALUES STORED IN RAM DELETING OF THE FIRST BLOCK OF VALUES OF VALUE OF MIN/MAX STORED IN RAM DATE/TIME/DAY SOLAR/SUMMER TIME HOUR CHANGE DELETING OF THE FIRST BLOCK OF VALUES OF HARMONIC STORED IN RAM DELETING OF ALL VALUES STORED IN RAM TRANSFORMING RATIO CT TRANSFORMING RATIO VT PROGRAMMING, ERASING OF THE VALUES STORED IN RAM PROGRAMMING MIN/MAX AND SAMPLES CAMPAIGN ACQUISITION INTEGRATION TIME FOR AVERAGE POWER CALCULATION BACKLIGHT ON TIME (seconds) FREQUENCY MEASURING RANGE DELETING THE FIRST BLOCK OF VALUES OF SAMPLES STORED IN RAM ENERGY RESET

006 007 008 009 010 011 015 016 018 020 021 024 027 028 029 031

W00 W04 W06 W07 W08 W09 W0A W0B W0F W10 W12 W14 W15 W18 W1B W1C W1D W1F

DIGITAL OUTPUT 1 032 033

PULSE THRESHOLD

W20 W21 ANALOG OUTPUT 1

035

ANALOG

036 037

PULSE THRESHOLD

038 039

PULSE THRESHOLD

040 041

PULSE THRESHOLD

042 043

PULSE THRESHOLD

048 049

PULSE THRESHOLD

W23 DIGITAL OUTPUT 3 W24 W25 DIGITAL OUTPUT 4 W26 W27 DIGITAL OUTPUT 5 W28 W29 DIGITAL OUTPUT 6 W2A W2B DIGITAL OUTPUT 2 W30 W31 ANALOG OUTPUT 2

051

ANALOG

W33 ANALOG OUTPUT 3

052

ANALOG

W34 ANALOG OUTPUT 4

053

ANALOG


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DIGITAL INPUT 1 054

INPUT

055

INPUT

W36 DIGITAL INPUT 2 W37 DIGITAL OUTPUT 1

056

BAND

W38 DIGITAL OUTPUT 2

057

BAND

W39 DIGITAL OUTPUT 4

058

BAND

W3B DIGITAL OUTPUT 5

060

BAND

W3C DIGITAL OUTPUT 6

061

BAND

W3D

062

BAND

W3E

079 080 081

MIN/MAX VALUES RESET VARIABLE PROGRAMMING 50 TARIFF PROGRAMMING

W4F W50 W51

090

ENERGY TYPE

W5A

091

DIGITAL INPUT TYPE

W5B

095

WIRING MODE

W5F

101 102 103 104

3-PHASE SYSTEM ACTIVE ENERGY (acquired) (double format) 3-PHASE SYSTEM ACTIVE ENERGY (transferred) (double format) 3-PHASE SYSTEM REACTIVE ENERGY (inductive) (double format) 3-PHASE SYSTEM REACTIVE ENERGY (capacitive) (double format)

W65 W66 W67 W68

160 161 162 163 164 165 166 167 168 169 170 171 172 173 174 175

GENERIC COUNTER 1 VALUE GENERIC COUNTER 2 VALUE GENERIC COUNTER 3 VALUE GENERIC COUNTER 4 VALUE GENERIC COUNTER 5 VALUE GENERIC COUNTER 6 VALUE GENERIC COUNTER 7 VALUE GENERIC COUNTER 8 VALUE GENERIC COUNTER 1 SETTING GENERIC COUNTER 2 SETTING GENERIC COUNTER 3 SETTING GENERIC COUNTER 4 SETTING GENERIC COUNTER 5 SETTING GENERIC COUNTER 6 SETTING GENERIC COUNTER 7 SETTING GENERIC COUNTER 8 SETTING

WA0 WA1 WA2 WA3 WA4 WA5 WA6 WA7 WA8 WA9 WAA WAB WAC WAD WAE WAF

DIGITAL OUTPUT 3


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1.9) E000 E004 E005 E006 E007

ERROR MESSAGES No Error None error has been occurred during the data transmission.

No 15’ (Buffer Empty)

E014

None of 15’ values has been stored.

No Min/Max (Buffer Empty)

E015

None of Min/Max values has been stored.

No Harmonics (Buffer Empty)

st

None of Harmonic values, both for voltage and current, up to the 31 order has been stored.

No Sample (Buffer Empty)

E016 E017

None of Sample values has been stored.

1.10) NOTES


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2) MODBUS-RTU COMMUNICATION PROTOCOL 2.1) MODBUS PROTOCOL Modbus is a master-slave communication protocol able to support up to 247 slaves organized as a bus or as a star network; The phisical link layer can be RS232 for a point to point connection or RS485 for a network. The communication is half-duplex. The network messages can be Query-Response or Broadcast type. The Query-Response command is transmitted from the Master to an estabilished Slave and generally it is followed by an answering message. The Broadcast command is transmitted from the Master to all Slaves and is never followed by an answer. MODBUS use two modes for transmission. A) ASCII Mode:

uses a limited character set as a whole for the comunication.

B) RTU Mode:

binary,with time frame synchronization,faster than the ASCII Mode,uses half so long data block than the ASCII Mode.

ANR analyzers employ RTU mode. GENERIC MESSAGE STRUCTURE: START OF FRAME

ADDRESS FIELD

START OF FRAME ADDRESS FIELD

= =

FUNCTION CODE DATA FIELD ERROR CHECK END OF FRAME

= = = =

FUNCTION CODE

DATA FIELD

ERROR CHECK

END OF FRAME

Starting message marker Includes device address in wich you need to comunicate in Query-Response mode. In case the message is a Broadcast type it includes 00. Includes the operation code that you need to perform. Includes the data field. Field for the error correction code. End message marker.

Communication frame structure: Mode RTU Bit per byte

=

mode a) 1 Start, 8 Bit, 1 Parity, 1 Stop mode b) 1 Start, 8 Bit, 2 Stop

START OF FRAME ADDRES FIELD FUNCTION CODE DATA FIELD ERROR CHECK END OF FRAME

= = = = = =

silence on line for time >=4 characters 1 character 1 character N characters 16 bit CRC silence on line for time >=4 characters

The wait time for response is 30-50 msecond.


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CRC GENERATION Example of the CRC-16 generation with "C" language: static unsigned char auchCRCHi [ ] = { 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, }; static unsigned char auchCRCLo [ ] = { 0x00, 0xC0, 0xC1, 0x01, 0xC3, 0x03, 0xCC, 0x0C, 0x0D, 0xCD, 0x0F, 0xCF, 0xD8, 0x18, 0x19, 0xD9, 0x1B, 0xDB, 0x14, 0xD4, 0xD5, 0x15, 0xD7, 0x17, 0xF0, 0x30, 0x31, 0xF1, 0x33, 0xF3, 0x3C, 0xFC, 0xFD, 0x3D, 0xFF, 0x3F, 0x28, 0xE8, 0xE9, 0x29, 0xEB, 0x2B, 0xE4, 0x24, 0x25, 0xE5, 0x27, 0xE7, 0xA0, 0x60, 0x61, 0xA1, 0x63, 0xA3, 0x6C, 0xAC, 0xAD, 0x6D, 0xAF, 0x6F, 0x78, 0xB8, 0xB9, 0x79, 0xBB, 0x7B, 0xB4, 0x74, 0x75, 0xB5, 0x77, 0xB7, 0x50, 0x90, 0x91, 0x51, 0x93, 0x53, 0x9C, 0x5C, 0x5D, 0x9D, 0x5F, 0x9F, 0x88, 0x48, 0x49, 0x89, 0x4B, 0x8B, 0x44, 0x84, 0x85, 0x45, 0x87, 0x47, } unsigned short CRC16 (ptMsg, usDataLen) unsigned char *ptMsg; unsigned short usDataLen; { unsigned char uchCRCHi = 0xFF; unsigned char uchCRCLo =0xFF; unsigned uIndex;

}

0x02, 0xCE, 0xDA, 0x16, 0xF2, 0x3E, 0x2A 0xE6, 0xA2, 0x6E, 0x7A, 0xB6, 0x52, 0x9E, 0x8A, 0x46,

0x41, 0x40, 0x40, 0x41, 0x40, 0x41, 0x41, 0x40, 0x40, 0x41, 0x41, 0x40, 0x41, 0x40, 0x40, 0x41,


0xC0, 0xC1, 0xC1, 0xC0, 0xC1, 0xC0, 0xC0, 0xC1, 0xC1, 0xC0, 0xC0, 0xC1, 0xC0, 0xC1, 0xC1, 0xC0,




0xC1, 0xC0, 0xC0, 0xC1, 0xC0, 0xC1, 0xC1, 0xC0, 0xC0, 0xC1, 0xC1, 0xC0, 0xC1, 0xC0, 0xC0, 0xC1,


0x40, 0x41, 0x41, 0x40, 0x41, 0x40, 0x40, 0x41, 0x41, 0x40, 0x40, 0x41, 0x40, 0x41, 0x41, 0x40

0xC2, 0x0E, 0x1A, 0xD6, 0x32, 0xFE, 0xEA, 0x26, 0x62, 0xAE, 0xBA, 0x76, 0x92, 0x5E, 0x4A, 0x86,

0xC6, 0x0A, 0x1E, 0xD2, 0x36, 0xFA, 0xEE, 0x22, 0x66, 0xAA, 0xBE, 0x72, 0x96, 0x5A, 0x4E, 0x82,

0x06, 0xCA, 0xDE, 0x12, 0xF6, 0x3A, 0x2E, 0xE2, 0xA6, 0x6A, 0x7E, 0xB2, 0x56, 0x9A, 0x8E, 0x42,

0x07, 0xCB, 0xDF, 0x13, 0xF7, 0x3B, 0x2F, 0xE3, 0xA7, 0x6B, 0x7F, 0xB3, 0x57, 0x9B, 0x8F, 0x43,

0xC7, 0x0B, 0x1F, 0xD3, 0x37, 0xFB, 0xEF, 0x23, 0x67, 0xAB, 0xBF, 0x73, 0x97, 0x5B, 0x4F, 0x83,

0x05, 0xC9, 0xDD, 0x11, 0xF5, 0x39, 0x2D, 0xE1, 0xA5, 0x69, 0x7D, 0xB1, 0x55, 0x99, 0x8D, 0x41,

0xC5, 0x09, 0x1D, 0xD1, 0x35, 0xF9, 0xED, 0x21, 0x65, 0xA9, 0xBD, 0x71, 0x95, 0x59, 0x4D, 0x81,

0xC4, 0x08, 0x1C, 0xD0, 0x34, 0xF8, 0xEC, 0x20, 0x64, 0xA8, 0xBC, 0x70, 0x94, 0x58, 0x4C, 0x80,

0x04, 0xC8, 0xDC, 0x10, 0xF4, 0x38, 0X2C, 0xE0, 0xA4, 0x68, 0x7C, 0xB0, 0x54, 0x98, 0x8C, 0x40

/ * message to calculate CRC upon * / / * number of bytes in message * / / * CRC high byte * / / * CRC low byte * /

while (usDataLen--) / * pass through message buffer * / { uIndex = uchCRCHi ^ *ptMsg++; /.* calculate the CRC * / uchCRCHi = uchCRCLo ^ auchCRCHi [ uIndex ] ; uchCRCLo = auchCRCLo [ uIndex ] } return (uchCRCHi « 8 | uchCRCLo ) ;

Note: The”Error Check (CRC)” field must be computed reffering to the characters from the first of ADDR to the last of DATA inclusive.


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2.2) READING OF THE REGISTERS ( Function Code $ 03) Reads the binary contents of holding registers ( 4X references) in the slave. Broadcast is not supported. The Query message specified the starting register and quantity of register to be read. QUERY: START OF FRAME

ADDRESS FIELD

FUNCTION CODE

START OF FRAME ADDRESS FIELD FUNCTION CODE START ADDRESS No.OF REGISTERS

= = = = =

ERROR CHECK END OF FRAME

= =

START ADDRESS

No. OF REGISTERS

ERROR CHECK

END OF FRAME

Starting message marker. ANR device address (00...FF HEX) ( 1 byte). Operation code ( 03 HEX) ( 1 byte). First register address to be read ( 2 byte). Number of registers ( max 126) to be read ( 4 byte or 2 byte for 1 IEEE meas value). Check sum. End message marker.

WARNING: It is possible to read more than one variable at the same time only if their addresses are consecutive and the variables on the same line cannot be divided. The register data in the response message are packet as two bytes per register,with the binary contents right justified within each byte. For each register,the first byte contains the high order bits and the second contains the low order bits. RESPONSE: START OF FRAME

ADDRESS FIELD

FUNCTION CODE

START OF FRAME = ADDRESS FIELD = FUNCTION CODE = No.OF SEND BYTES = D0, D1, .., Dn ERROR CHECK END OF FRAME

= = =

No. OF BYTES

D0, D1, …, Dn

ERROR CHECK

END OF FRAME

Starting message marker. UPM device address (00...FF HEX) ( 1byte). Operation code ( 03 HEX) ( 1 Byte). Number of data bytes ( 00...?? HEX) ( 1 byte). 1 register requires 2 data bytes. data bytes ( 00...?? HEX) ( Nr. of register x 2 = n. byte). Check sum. End message marker.

See the TABLE OF ANR REGISTERS to the sect. 5 and see the EXAMPLE to the sect. 6:


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IEE STANDARD FLOATING POINT The basic format allows a IEEE standard floating-point number to be representing in single-32 bit format as:

N.n= ( -1)S 2e’-127 (1. ƒ) where S is the sign bit,e’ is the biased exponent,and f is the fraction strored normalized without the leaning 1. Internally the exponent is 8 bits in length and the stored fraction is 23 bits long. The floating-point formats is presented in the follow: S bit number

31

e + 127 30

23

ƒ 22

0

IEEE Standard Floating-Point Single Precision Notation Length in bits: Sign Exponent Fraction Total

1 8 23+ (1) m= 32 + (1)

Exponent (e): Max Min Bias

255 0 127

Note:Fractions are always normalized and the leading 1 (hidden bit) is not stored. The IEEE standard floating-point register is start to $ 2000. See the TABLE OF ANR REGISTERS to the sect.5:


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2.3) SETUP OF THE ANR PARAMETERS (Function Code $ 10 ) Presets values into a sequence of holding registers ( 4X references). When broadcast, the function presets the same register references in all attached slaves. NOTE: The function will override the controller’s memory protect state.The preset values will remain valid in the registers until the controller’s logic next solves the register contents.The register values will remain if they are not programmed in the controller’s logic. The query message specified the register reference to be preset.Registers are addressed starting at zero:register 1 is addressed as 0. WARNING: It is possible to write more than one variable at the same time only if their addresses are consecutive and the variables on the same line cannot be divided. QUERY: START OF FRAME

ADDRESS FIELD

FUNCTION CODE

START ADDRESS

No. OF REGISTERS

No. OF BYTES

D0, D1, …, Dn

START OF FRAME ADDRESS FIELD FUNCTION CODE START ADDRESS No. OF REGISTER No. OF BYTES

= = = = = =

Starting message marker. ANR device address ( 00...FF HEX) Operation code (10 HEX) First register address to be written Number of registers to be written (1,2,3,4,...) Number of data bytes (HEX)

D0,D1,..,Dn

=

Data bytes ( 00...? HEX)

ERROR CHECK END OF FRAME

= =

Check sum. End message marker.

ERROR CHECK

END OF FRAME

(1 byte). (1 byte). (2 byte). (2 byte). (1 byte): 1register requires 2 data bytes. (1 byte) ( Nr.of register x 2 = n. byte).

The normal response retums the slave address, function code,starting address and quantity of register preset. RESPONSE: START OF FRAME

ADDRESS FIELD

START OF FRAME ADDRESS FIELD FUNCTION CODE START ADDRESS No. OF REGISTER ERROR CHECK END OF FRAME

FUNCTION CODE

= = = = = = =

START ADDRESS

No. OF REGISTERS

ERROR CHECK

Starting message marker. ANR device address ( 00...FF HEX) Operation code ( 10 HEX) First register address to be written Number of registers to be written Check sum. End message marker.

END OF FRAME

(1 byte). (1 byte). (2 byte). (2 byte).

See the TABLE OF ANR REGISTERS to the sect. 5 and see the EXAMPLE to the sect. 6 :


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2.4) ERROR MESSAGE FROM SLAVE TO MASTER When a slave device receives a not valid query, it does transmit an error message. RESPONSE: START OF FRAME

ADDRESS FIELD

START OF FRAME ADDRESS FIELD FUNCTION CODE ERROR CODE ERROR CHECK END OF FRAME

FUNCTION CODE

= = = = = =

ERROR CODE

ERROR CHECK

END OF FRAME

Starting message marker. ANR device address ( 00...FF HEX) Operation code with bit 7 high Message containing communication failure Check sum. End message marker.

(1 byte ). (1 byte). (1 byte).

ERROR EXAMPLE QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Error Check (CRC)

RESPONSE Example ( Hex) 01 03 00 00 00 05 ?? ??


Field Name Slave Address Function Code Error Code Error Check (CRC)

Example ( Hex) 01 83 (1) 02 (2) ?? ?? (1): Function Code transmitted by master with bit 7 high. (2): Error type: 01= Illegal Function 02= Illegal data address 03= Illegal data value

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2.5) DIAGNOSTIC (Function Code $ 08) This function provides a test for checking the communication system. Broadcast is not supported. The instrument’s protocol has only the sub-function 0 of the diagnostics sub-functions set of the standard modbus protocol. The Query and the Response messages are the following: QUERY: START OF FRAME

ADDRESS FIELD

START OF FRAME ADDRESS FIELD FUNCTION CODE SUB FUNCTION DATA ERROR CHECK END OF FRAME

FUNCTION CODE

= = = = = = =

SUB FUNCTION

DATA

ERROR CHECK

END OF FRAME

Starting message marker. ANR device address (00...FF HEX) Operation code ( 08 HEX) Sub-function 0 (00 00 hex) Two bytes data to choose Check sum. End message marker.

(1 byte). (1 byte). (2 byte). (2 byte).

RESPONSE: The response must be the loopback of the same data. START OF FRAME

ADDRESS FIELD

START OF FRAME ADDRESS FIELD FUNCTION CODE SUB FUNCTION DATA ERROR CHECK END OF FRAME

FUNCTION CODE

= = = = = = =

SUB FUNCTION

DATA

ERROR CHECK

Starting message marker. ANR device address (00...FF HEX) Operation code ( 08 HEX) Sub-function 0 (00 00 hex) A two bytes data Check sum. End message marker.

END OF FRAME

(1 byte). (1 byte). (2 byte).

DIAGNOSTIC EXAMPLE QUERY Field Name Slave Address Function Code Sub-function Hi Sub-function Lo Data Hi Data Lo Error Check (CRC)

RESPONSE Example ( Hex) 01 08 00 00 F1 A7 ?? ??


Field Name Slave Address Function Code Sub-function Hi Sub-function Lo Data Hi Data Lo Error Check (CRC)

instruction manual

Example ( Hex) 01 08 00 00 F1 A7 ?? ??

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2.6) REPORT SLAVE ID (Function Code $ 11) This function returns the type of the instrument and the current status of the slave run indicator. Broadcast is not supported. The Query and the Reponse messages are the following: QUERY: START OF FRAME

ADDRESS FIELD

START OF FRAME ADDRESS FIELD FUNCTION CODE ERROR CHECK END OF FRAME

FUNCTION CODE

= = = = =

ERROR CHECK

END OF FRAME

Starting message marker. ANR device address (00...FF HEX) Operation code (11 HEX) Check sum. End message marker.

(1 byte). (1 byte).

RESPONSE: The normal response has the slave ID identifier (53 HEX) and the run indicator status (FF HEX). START OF FRAME

ADDRESS FIELD

FUNCTION CODE

START OF FRAME ADDRESS FIELD FUNCTION CODE BYTE COUNT SLAVE ID RUN INDICATOR STATUS ERROR CHECK END OF FRAME

= = = = = = = =

BYTE COUNT

SLAVE ID

RUN INDICATOR STATUS

ERROR CHECK

Starting message marker. ANR device address (00...FF HEX) Operation code (11 HEX) Number of data bytes (02 HEX) Slave ID identifier (53 HEX) Run indicator status (FF HEX) Check sum. End message marker.

END OF FRAME

(1 byte). (1 byte). (1 byte). (1 byte). (1 byte).

REPORT SLAVE ID EXAMPLE QUERY Field Name Slave Address Function Code Error Check (CRC)

RESPONSE Example (Hex) 01 11 ?? ??


Field Name Slave Address Function Code Byte count Slave ID Run indicator status Error Check (CRC)

instruction manual

Example (Hex) 01 11 02 53 FF ?? ??

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2.7) TABLE OF ANR REGISTERS The following table shown all the ANR registers. MEASURED VALUES (Function code $ 03) Register HEX $1000 $1004 $1008 $100C $1010 $1014 $1018 $101C $1020 $1024 $1028 $102C $1030 $1034 $1038 $103C $1040 $1044 $1048 $104C $1050 $1054 $1058 $105C $1060 $1064 $1068 $106C $1070 $1074 $1078 $107C $1080 $1084 $1088 $108C $1090 $1094 $1098 $109C $10A0 $10A4 $10A8 $10AC N. A. N. A. N. A. N. A. N. A.

Word 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

Reg. (IEEE) HEX $2000 $2002 $2004 $2006 $2008 $200A $200C $200E $2010 $2012 $2014 $2016 $2018 $201A $201C $201E $2020 $2022 $2024 $2026 $2028 $202A $202C $202E $2030 $2032 $2034 $2036 $2038 $203A $203C $203E $2040 $2042 $2044 $2046 $2048 $204° $204C $204E $2050 $2052 $2054 $2056 $2A3A $2A3C $2A40 $2A42 $2A44

Word

Description

M.U.

Type

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

3-PHASE SYSTEM VOLTAGE PHASE VOLTAGE L1-N PHASE VOLTAGE L2-N PHASE VOLTAGE L3-N LINE VOLTAGE L1-2 LINE VOLTAGE L2-3 LINE VOLTAGE L3-1 3-PHASE SYSTEM CURRENT LINE CURRENT L1 LINE CURRENT L2 LINE CURRENT L3 3-PHASE SYS. POWER FACTOR POWER FACTOR L1 POWER FACTOR L2 POWER FACTOR L3 3-PHASE SYSTEM COS∅ PHASE COS∅1 PHASE COS∅2 PHASE COS∅3 3-PHASE S. APPARENT POWER APPARENT POWER L1 APPARENT POWER L2 APPARENT POWER L3 3-PHASE SYS. ACTIVE POWER ACTIVE POWER L1 ACTIVE POWER L2 ACTIVE POWER L3 3-PHASE S. REACTIVE POWER REACTIVE POWER L1 REACTIVE POWER L2 REACTIVE POWER L3 3-PHASE SYS. ACTIVE ENERGY+ 3-PHASE S. REACTIVE ENERGY+ 3-PHASE SYS.ACTIVE EN. 3-PHASE SYS.REACT.EN. FREQUENCY THD VOLTAGE L1 THD VOLTAGE L2 THD VOLTAGE L3 THD CURRENT L1 THD CURRENT L2 THD CURRENT L3 3-PHASE AVG. ACTIVE POWER 3-PHASE AVERAGE CURRENT NEUTRAL CURRENT 3 PHASE AVG. REACTIVE POWER AVERAGE LINE CURRENT L1 AVERAGE LINE CURRENT L2 AVERAGE LINE CURRENT L3

[mV] [mV] [mV] [mV] [mV] [mV] [mV] [mA] [mA] [mA] [mA] [-] [-] [-] [-] [-] [-] [-] [-] [mVA] [mVA] [mVA] [mVA] [mW] [mW] [mW] [mW] [mVAR] [mVAR] [mVAR] [mVAR] [mWh] [mVARh] [mWh] [mVARh] [mHz] [m%] [m%] [m%] [m%] [m%] [m%] [mW] [mA] [-] [-] [-] [-] [-]

(Uns.) MSB=0 (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Signed) MSB=1 (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) [-] [-] [-] [-] [-]

NOTE: WHEN THE INSTRUMENT CAN’T MEASURE IT SEND 0000 AS VALUE.


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MIN/MAX VALUES (Function code $ 03) Register HEX

Word

$10B0 $10B3 $10B6 $10BA $10BD $10C0 $10C4 $10C7 $10CA $10CE $10D1 $10D4 $10D8 $10DB $10DE $10E2 $10E5 $10E8 $10EC $10EF $10F2 $10F6 $10F9 $10FC $1100 $1103 $1106 $110A $110D $1110 $1114 $1117 $111A $111E $1121 $1124 $1128 $112B $112E $1132 $1135 $1138 $113C $113F $1142 $1146 $1149 $114C $1150 $1153 $1156 $115A $115D $1160 $1164 $1167 $116A

3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4 3 3 4

Reg. (IEEE) HEX $20B0 $20B3 $20B6 $20B8 $20BB $20BE $20C0 $20C3 $20C6 $20C8 $20CB $20CE $20D0 $20D3 $20D6 $20D8 $20DB $20DE $20E0 $20E3 $20E6 $20E8 $20EB $20EE $20F0 $20F3 $20F6 $20F8 $20FB $20FE $2100 $2103 $2106 $2108 $210B $210E $2110 $2113 $2116 $2118 $211B $211E $2120 $2123 $2126 $2128 $212B $212E $2130 $2133 $2136 $2138 $213B $213E $2140 $2143 $2146

Word


3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2 3 3 2

Description YY MM DD HH MM SS MIN 3-PHASE SYSTEM VOLTAGE YY MM DD HH MM SS MAX 3-PHASE SYSTEM VOLTAGE YY MM DD HH MM SS MIN 1-PHASE VOLTAGE L1-N YY MM DD HH MM SS MAX 1-PHASE VOLTAGE L1-N YY MM DD HH MM SS MIN 1-PHASE VOLTAGE L2-N YY MM DD HH MM SS MAX 1-PHASE VOLTAGE L2-N YY MM DD HH MM SS MINIMUN 1-PHASE VOLTAGE L3-N YY MM DD HH MM SS MAXIMUM 1-PHASE VOLTAGE L3-N YY MM DD HH MM SS MIN 3-PHASE SYSTEM CURRENT YY MM DD HH MM SS MAX 3-PHASE SYSTEM CURRENT YY MM DD HH MM SS MINIMUN LINE CURRENT L1 YY MM DD HH MM SS MAXIMUM LINE CURRENT L1 YY MM DD HH MM SS MINIMUN LINE CURRENT L2 YY MM DD HH MM SS MAXIMUM LINE CURRENT L2 YY MM DD HH MM SS MINIMUN LINE CURRENT L3 YY MM DD HH MM SS MAXIMUM LINE CURRENT L3 YY MM DD HH MM SS MIN.3 PHASE SYS. ACTIVE POWER YY MM DD HH MM SS MAX.3 PHASE SYS.ACTIVE POWER YY MM DD HH MM SS MIN.3 PHASE S.APPARENT POWER instruction manual

IM145-U v5.8

M.U.

Type

[-] [-] [mV] [-] [-] [mV] [-] [-] [mV] [-] [-] [mV] [-] [-] [mV] [-] [-] [mV] [-] [-] [mV] [-] [-] [mV] [-] [-] [mA] [-] [-] [mA] [-] [-] [mA] [-] [-] [mA] [-] [-] [mA] [-] [-] [mA] [-] [-] [mA] [-] [-] [mA] [-] [-] [mW] [-] [-] [mW] [-] [-] [mVA]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed)

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$116E $1171 $1174 $1178 $117B $117E $1182 $1185 $1188 $118C $118F $1192 $1196 $1199 $119C

3 3 4 3 3 4 3 3 4 3 3 4 3 3 4

$2148 $214B $214E $2150 $2153 $2156 $2158 $215B $215E $2160 $2163 $2166 $2168 $216B $216E

3 3 2 3 3 2 3 3 2 3 3 2 3 3 2

YY MM DD HH MM SS MAX.3 PHASE S.APPARENT POWER YY MM DD HH MM SS MIN.3 PHASE S..POWER FACTOR YY MM DD HH MM SS MAX.3 PHASE S..POWER FACTOR YY MM DD HH MM SS MIN.3 PHASE AVERAGE POWER YY MM DD HH MM SS MAX 3 PHASE AVERAGE POWER

[-] [-] [mVA] [-] [-] [-] [-] [-] [-] [-] [-] [mW] [-] [-] [mW]

(Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Signed) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

HARMONICS VALUES (Function code $03) Register HEX

Word

$1200 $1204 $1208 $120C $1210 $1214 $1218 $121C $1220 $1224 $1228 $122C $1230 $1234 $1238 $123C $1240 $1244 $1248 $124C $1250 $1254 $1258 $125C $1260 $1460 $1464 $1468 $146C $1470 $1474

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

Reg. (IEEE) HEX $2200 $2202 $2204 $2206 $2208 $220A $220C $220E $2210 $2212 $2214 $2216 $2218 $221A $221C $221E $2220 $2222 $2224 $2226 $2228 $222A $222C $222E $2230 $2400 $2402 $2404 $2406 $2408 $240A

Word 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2


Description 1ST VOLTAGE HARMONIC OF THE L1 PHASE 2ND VOLTAGE HARMONIC OF THE L1 PHASE 3RD VOLTAGE HARMONIC OF THE L1 PHASE 4TH VOLTAGE HARMONIC OF THE L1 PHASE 5TH VOLTAGE HARMONIC OF THE L1 PHASE 6TH VOLTAGE HARMONIC OF THE L1 PHASE 7TH VOLTAGE HARMONIC OF THE L1 PHASE 8TH VOLTAGE HARMONIC OF THE L1 PHASE 9TH VOLTAGE HARMONIC OF THE L1 PHASE 10TH VOLTAGE HARMONIC OF THE L1 PHASE TH 11 VOLTAGE HARMONIC OF THE L1 PHASE 12TH VOLTAGE HARMONIC OF THE L1 PHASE 13TH VOLTAGE HARMONIC OF THE L1 PHASE 14TH VOLTAGE HARMONIC OF THE L1 PHASE 15TH VOLTAGE HARMONIC OF THE L1 PHASE 16TH VOLTAGE HARMONIC OF THE L1 PHASE 17TH VOLTAGE HARMONIC OF THE L1 PHASE 18TH VOLTAGE HARMONIC OF THE L1 PHASE 19TH VOLTAGE HARMONIC OF THE L1 PHASE 20TH VOLTAGE HARMONIC OF THE L1 PHASE 21TH VOLTAGE HARMONIC OF THE L1 PHASE TH 22 VOLTAGE HARMONIC OF THE L1 PHASE 23TH VOLTAGE HARMONIC OF THE L1 PHASE 24TH VOLTAGE HARMONIC OF THE L1 PHASE 25TH VOLTAGE HARMONIC OF THE L1 PHASE 26TH VOLTAGE HARMONIC OF THE L1 PHASE 27TH VOLTAGE HARMONIC OF THE L1 PHASE 28TH VOLTAGE HARMONIC OF THE L1 PHASE 29TH VOLTAGE HARMONIC OF THE L1 PHASE 30TH VOLTAGE HARMONIC OF THE L1 PHASE 31TH VOLTAGE HARMONIC OF THE L1 PHASE

instruction manual

IM145-U v5.8

M.U.

Type

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

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$1264 $1268 $126C $1270 $1274 $1278 $127C $1280 $1284 $1288 $128C $1290 $1294 $1298 $129C $12A0 $12A4 $12A8 $12AC $12B0 $12B4 $12B8 $12BC $12C0 $12C4 $1478 $147C $1480 $1484 $1488 $148C

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2232 $2234 $2236 $2238 $223A $223C $223E $2240 $2242 $2244 $2246 $2248 $224A $224C $224E $2250 $2252 $2254 $2256 $2258 $225A $225C $225E $2260 $2262 $240C $240E $2410 $2412 $2414 $2416

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1ST VOLTAGE HARMONIC OF THE L2 PHASE 2ND VOLTAGE HARMONIC OF THE L2 PHASE 3RD VOLTAGE HARMONIC OF THE L2 PHASE 4TH VOLTAGE HARMONIC OF THE L2 PHASE 5TH VOLTAGE HARMONIC OF THE L2 PHASE 6TH VOLTAGE HARMONIC OF THE L2 PHASE 7TH VOLTAGE HARMONIC OF THE L2 PHASE 8TH VOLTAGE HARMONIC OF THE L2 PHASE 9TH VOLTAGE HARMONIC OF THE L2 PHASE 10TH VOLTAGE HARMONIC OF THE L2 PHASE 11TH VOLTAGE HARMONIC OF THE L2 PHASE 12TH VOLTAGE HARMONIC OF THE L2 PHASE 13TH VOLTAGE HARMONIC OF THE L2 PHASE 14TH VOLTAGE HARMONIC OF THE L2 PHASE 15TH VOLTAGE HARMONIC OF THE L2 PHASE 16TH VOLTAGE HARMONIC OF THE L2 PHASE 17TH VOLTAGE HARMONIC OF THE L2 PHASE 18TH VOLTAGE HARMONIC OF THE L2 PHASE 19TH VOLTAGE HARMONIC OF THE L2 PHASE 20TH VOLTAGE HARMONIC OF THE L2 PHASE 21TH VOLTAGE HARMONIC OF THE L2 PHASE 22TH VOLTAGE HARMONIC OF THE L2 PHASE 23TH VOLTAGE HARMONIC OF THE L2 PHASE 24TH VOLTAGE HARMONIC OF THE L2 PHASE 25TH VOLTAGE HARMONIC OF THE L2 PHASE 26TH VOLTAGE HARMONIC OF THE L2 PHASE 27TH VOLTAGE HARMONIC OF THE L2 PHASE 28TH VOLTAGE HARMONIC OF THE L2 PHASE 29TH VOLTAGE HARMONIC OF THE L2 PHASE 30TH VOLTAGE HARMONIC OF THE L2 PHASE 31TH VOLTAGE HARMONIC OF THE L2 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]


$12C8 $12CC $12D0 $12D4 $12D8 $12DC $12E0 $12E4 $12E8 $12EC $12F0 $12F4 $12F8 $12FC $1300 $1304 $1308 $130C $1310 $1314 $1318 $131C $1320 $1324 $1328 $1490 $1494 $1498 $149C $14A0

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2264 $2266 $2268 $226A $226C $226E $2270 $2272 $2274 $2276 $2278 $227A $227C $227E $2280 $2282 $2284 $2286 $2288 $228A $228C $228E $2290 $2292 $2294 $2418 $241A $241C $241E $2420

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1ST VOLTAGE HARMONIC OF THE L3 PHASE 2ND VOLTAGE HARMONIC OF THE L3 PHASE 3RD VOLTAGE HARMONIC OF THE L3 PHASE 4TH VOLTAGE HARMONIC OF THE L3 PHASE 5TH VOLTAGE HARMONIC OF THE L3 PHASE 6TH VOLTAGE HARMONIC OF THE L3 PHASE 7TH VOLTAGE HARMONIC OF THE L3 PHASE 8TH VOLTAGE HARMONIC OF THE L3 PHASE 9TH VOLTAGE HARMONIC OF THE L3 PHASE 10TH VOLTAGE HARMONIC OF THE L3 PHASE 11TH VOLTAGE HARMONIC OF THE L3 PHASE 12TH VOLTAGE HARMONIC OF THE L3 PHASE 13TH VOLTAGE HARMONIC OF THE L3 PHASE 14TH VOLTAGE HARMONIC OF THE L3 PHASE 15TH VOLTAGE HARMONIC OF THE L3 PHASE 16TH VOLTAGE HARMONIC OF THE L3 PHASE 17TH VOLTAGE HARMONIC OF THE L3 PHASE 18TH VOLTAGE HARMONIC OF THE L3 PHASE 19TH VOLTAGE HARMONIC OF THE L3 PHASE 20TH VOLTAGE HARMONIC OF THE L3 PHASE 21TH VOLTAGE HARMONIC OF THE L3 PHASE 22TH VOLTAGE HARMONIC OF THE L3 PHASE 23TH VOLTAGE HARMONIC OF THE L3 PHASE 24TH VOLTAGE HARMONIC OF THE L3 PHASE 25TH VOLTAGE HARMONIC OF THE L3 PHASE 26TH VOLTAGE HARMONIC OF THE L3 PHASE 27TH VOLTAGE HARMONIC OF THE L3 PHASE 28TH VOLTAGE HARMONIC OF THE L3 PHASE 29TH VOLTAGE HARMONIC OF THE L3 PHASE 30TH VOLTAGE HARMONIC OF THE L3 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)


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$14A4

4

$2422

2

31TH VOLTAGE HARMONIC OF THE L3 PHASE ST

[%]

(Unsigned)

$132C $1330 $1334 $1338 $133C $1340 $1344 $1348 $134C $1350 $1354 $1358 $135C $1360 $1364 $1368 $136C $1370 $1374 $1378 $137C $1380 $1384 $1388 $138C $14A8 $14AC $14B0 $14B4 $14B8 $14BC

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2296 $2298 $229A $229C $229E $22A0 $22A2 $22A4 $22A6 $22A8 $22AA $22AC $22AE $22B0 $22B2 $22B4 $22B6 $22B8 $22BA $22BC $22BE $22C0 $22C2 $22C4 $22C6 $2424 $2426 $2428 $242A $242C $242E

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1 CURRENT HARMONIC OF THE L1 PHASE 2ND CURRENT HARMONIC OF THE L1 PHASE 3RD CURRENT HARMONIC OF THE L1 PHASE 4TH CURRENT HARMONIC OF THE L1 PHASE 5TH CURRENT HARMONIC OF THE L1 PHASE 6TH CURRENT HARMONIC OF THE L1 PHASE 7TH CURRENT HARMONIC OF THE L1 PHASE 8TH CURRENT HARMONIC OF THE L1 PHASE 9TH CURRENT HARMONIC OF THE L1 PHASE 10TH CURRENT HARMONIC OF THE L1 PHASE 11TH CURRENT HARMONIC OF THE L1 PHASE 12TH CURRENT HARMONIC OF THE L1 PHASE 13TH CURRENT HARMONIC OF THE L1 PHASE 14TH CURRENT HARMONIC OF THE L1 PHASE 15TH CURRENT HARMONIC OF THE L1 PHASE 16TH CURRENT HARMONIC OF THE L1 PHASE 17TH CURRENT HARMONIC OF THE L1 PHASE 18TH CURRENT HARMONIC OF THE L1 PHASE 19TH CURRENT HARMONIC OF THE L1 PHASE 20TH CURRENT HARMONIC OF THE L1 PHASE 21TH CURRENT HARMONIC OF THE L1 PHASE 22TH CURRENT HARMONIC OF THE L1 PHASE 23TH CURRENT HARMONIC OF THE L1 PHASE 24TH CURRENT HARMONIC OF THE L1 PHASE 25TH CURRENT HARMONIC OF THE L1 PHASE 26TH CURRENT HARMONIC OF THE L1 PHASE 27TH CURRENT HARMONIC OF THE L1 PHASE 28TH CURRENT HARMONIC OF THE L1 PHASE 29TH CURRENT HARMONIC OF THE L1 PHASE 30TH CURRENT HARMONIC OF THE L1 PHASE 31TH CURRENT HARMONIC OF THE L1 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]


$1390 $1394 $1398 $139C $13A0 $13A4 $13A8 $13AC $13B0 $13B4 $13B8 $13BC $13C0 $13C4 $13C8 $13CC $13D0 $13D4 $13D8 $13DC $13E0 $13E4 $13E8 $13EC $1400 $14C0 $14C4 $14C8 $14CC

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$22C8 $22CA $22CC $22CE $22D0 $22D2 $22D4 $22D6 $22D8 $22DA $22DC $22DE $22E0 $22E2 $22E4 $22E6 $22E8 $22EA $22EC $22EE $22F0 $22F2 $22F4 $22F6 $22F8 $2430 $2432 $2434 $2436

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1ST CURRENT HARMONIC OF THE L2 PHASE 2ND CURRENT HARMONIC OF THE L2 PHASE 3RD CURRENT HARMONIC OF THE L2 PHASE 4TH CURRENT HARMONIC OF THE L2 PHASE 5TH CURRENT HARMONIC OF THE L2 PHASE 6TH CURRENT HARMONIC OF THE L2 PHASE 7TH CURRENT HARMONIC OF THE L2 PHASE 8TH CURRENT HARMONIC OF THE L2 PHASE 9TH CURRENT HARMONIC OF THE L2 PHASE 10TH CURRENT HARMONIC OF THE L2 PHASE 11TH CURRENT HARMONIC OF THE L2 PHASE 12TH CURRENT HARMONIC OF THE L2 PHASE 13TH CURRENT HARMONIC OF THE L2 PHASE 14TH CURRENT HARMONIC OF THE L2 PHASE 15TH CURRENT HARMONIC OF THE L2 PHASE 16TH CURRENT HARMONIC OF THE L2 PHASE 17TH CURRENT HARMONIC OF THE L2 PHASE 18TH CURRENT HARMONIC OF THE L2 PHASE 19TH CURRENT HARMONIC OF THE L2 PHASE 20TH CURRENT HARMONIC OF THE L2 PHASE 21TH CURRENT HARMONIC OF THE L2 PHASE 22TH CURRENT HARMONIC OF THE L2 PHASE 23TH CURRENT HARMONIC OF THE L2 PHASE 24TH CURRENT HARMONIC OF THE L2 PHASE 25TH CURRENT HARMONIC OF THE L2 PHASE 26TH CURRENT HARMONIC OF THE L2 PHASE 27TH CURRENT HARMONIC OF THE L2 PHASE 28TH CURRENT HARMONIC OF THE L2 PHASE 29TH CURRENT HARMONIC OF THE L2 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)


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$14D0 $14D4

4 4

$2438 $243A

2 2

30TH CURRENT HARMONIC OF THE L2 PHASE 31TH CURRENT HARMONIC OF THE L2 PHASE

[%] [%]

(Unsigned) (Unsigned)

$13F4 $13F8 $13FC $13F0 $1404 $1408 $140C $1410 $1414 $1418 $141C $1420 $1424 $1428 $142C $1430 $1434 $1438 $143C $1440 $1444 $1448 $144C $1450 $1454 $14D8 $14DC $14E0 $14E4 $14E8 $14EC

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$22FA $22FC $22FE $2300 $2302 $2304 $2306 $2308 $230A $230C $230E $2310 $2312 $2314 $2316 $2318 $231A $231C $231E $2320 $2322 $2324 $2326 $2328 $232A $243C $243E $2440 $2442 $2444 $2446

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1ST CURRENT HARMONIC OF THE L3 PHASE 2ND CURRENT HARMONIC OF THE L3 PHASE 3RD CURRENT HARMONIC OF THE L3 PHASE 4TH CURRENT HARMONIC OF THE L3 PHASE 5TH CURRENT HARMONIC OF THE L3 PHASE 6TH CURRENT HARMONIC OF THE L3 PHASE 7TH CURRENT HARMONIC OF THE L3 PHASE 8TH CURRENT HARMONIC OF THE L3 PHASE 9TH CURRENT HARMONIC OF THE L3 PHASE 10TH CURRENT HARMONIC OF THE L3 PHASE 11TH CURRENT HARMONIC OF THE L3 PHASE 12TH CURRENT HARMONIC OF THE L3 PHASE 13TH CURRENT HARMONIC OF THE L3 PHASE 14TH CURRENT HARMONIC OF THE L3 PHASE 15TH CURRENT HARMONIC OF THE L3 PHASE 16TH CURRENT HARMONIC OF THE L3 PHASE 17TH CURRENT HARMONIC OF THE L3 PHASE 18TH CURRENT HARMONIC OF THE L3 PHASE 19TH CURRENT HARMONIC OF THE L3 PHASE 20TH CURRENT HARMONIC OF THE L3 PHASE 21TH CURRENT HARMONIC OF THE L3 PHASE 22TH CURRENT HARMONIC OF THE L3 PHASE 23TH CURRENT HARMONIC OF THE L3 PHASE 24TH CURRENT HARMONIC OF THE L3 PHASE 25TH CURRENT HARMONIC OF THE L3 PHASE 26TH CURRENT HARMONIC OF THE L3 PHASE 27TH CURRENT HARMONIC OF THE L3 PHASE 28TH CURRENT HARMONIC OF THE L3 PHASE 29TH CURRENT HARMONIC OF THE L3 PHASE 30TH CURRENT HARMONIC OF THE L3 PHASE 31TH CURRENT HARMONIC OF THE L3 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]



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TIME BAND ENERGY COUNTER (FUNCTION CODE $03) Register HEX

Word

$1500 $1504 $1508 $150C $1510 $1514 $1518 $151C $1520 $1524 $1528 $152C $15C0 $15C4 $15C8 $15CC

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

Reg. (IEEE) HEX $2500 $2502 $2504 $2506 $2508 $250A $250C $250E $2510 $2512 $2514 $2516 $2560 $2562 $2564 $2566

$1530 $1534 $1538 $153C $1540 $1544 $1548 $154C $1550 $1554 $1558 $155C $15D0 $15D4 $15D8 $15DC

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$1560 $1564 $1568 $156C $1570 $1574 $1578 $157C $1580 $1584 $1588 $158C $15E0 $15E4 $15E8 $15EC $1590 $1594 $1598 $159C $15A0 $15A4 $15A8

Word

Description

M.U.

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

Acquired active energy previous month band 1 Inductive reactive energy previous month band 1 Transferred active energy previous month band 1 Capacitive reactive energy previous month band 1 Acquired active energy previous month band 2 Inductive reactive energy previous month band 2 Transferred active energy previous month band 2 Capacitive reactive energy previous month band 2 Acquired active energy previous month band 3 Inductive reactive energy previous month band 3 Transferred active energy previous month band 3 Capacitive reactive energy previous month band 3 Acquired active energy previous month band 4 Inductive reactive energy previous month band 4 Transferred active energy previous month band 4 Capacitive reactive energy previous month band 4

[mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

$2518 $251A $251C $251E $2520 $2522 $2524 $2526 $2528 $252A $252C $252E $2568 $256A $256C $256E

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

Acquired active energy current month band 1 Inductive reactive energy current month band 1 Transferred active energy current month band 1 Capacitive reactive energy current month band 1 Acquired active energy current month band 2 Inductive reactive energy current month band 2 Transferred active energy current month band 2 Capacitive reactive energy current month band 2 Acquired active energy current month band 3 Inductive reactive energy current month band 3 Transferred active energy current month band 3 Capacitive reactive energy current month band 3 Acquired active energy current month band 4 Inductive reactive energy current month band 4 Transferred active energy current month band 4 Capacitive reactive energy current month band 4



4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2530 $2532 $2534 $2536 $2538 $253A $253C $253E $2540 $2542 $2544 $2546 $2570 $2572 $2574 $2576

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

Acquired active energy previous day band 1 Inductive reactive energy previous day band 1 Transferred active energy previous day band 1 Capacitive reactive energy previous day band 1 Acquired active energy previous day band 2 Inductive reactive energy previous day band 2 Transferred active energy previous day band 2 Capacitive reactive energy previous day band 2 Acquired active energy previous day band 3 Inductive reactive energy previous day band 3 Transferred active energy previous day band 3 Capacitive reactive energy previous day band 3 Acquired active energy previous day band 4 Inductive reactive energy previous day band 4 Transferred active energy previous day band 4 Capacitive reactive energy previous day band 4



4 4 4 4 4 4 4

$2548 $254A $254C $254E $2550 $2552 $2554

2 2 2 2 2 2 2

Acquired active energy current day band 1 Inductive reactive energy current day band 1 Transferred active energy current day band 1 Capacitive reactive energy current day band 1 Acquired active energy current day band 2 Inductive reactive energy current day band 2 Transferred active energy current day band 2

[mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)


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IM145-U v5.8

Type

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$15AC $15B0 $15B4 $15B8 $15BC $15F0 $15F4 $15F8 $15FC

4 4 4 4 4 4 4 4 4

$2556 $2558 $255A $255C $255E $2578 $257A $257C $257E

2 2 2 2 2 2 2 2 2

Capacitive reactive energy current day band 2 Acquired active energy current day band 3 Inductive reactive energy current day band 3 Transferred active energy current day band 3 Capacitive reactive energy current day band 3 Acquired active energy current day band 4 Inductive reactive energy current day band 4 Transferred active energy current day band 4 Capacitive reactive energy current day band 4

[mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

$1F80 $1F84 $1F88 $1F8C $1F90 $1F94 $1F98 $1F9C $1FA0 $1FA4 $1FA8 $1FAC $1FB0 $1FB4 $1FB8 $1FBC

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2FA0 $2FA2 $2FA4 $2FA6 $2FA8 $2FAA $2FAC $2FAE $2FB0 $2FB2 $2FB4 $2FB6 $2FB8 $2FBA $2FBC $2FBE

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

Acquired active energy previous year band 1 Inductive reactive energy previous year band 1 Transferred active energy previous year band 1 Capacitive reactive energy previous year band 1 Acquired active energy previous year band 2 Inductive reactive energy previous year band 2 Transferred active energy previous year band 2 Capacitive reactive energy previous year band 2 Acquired active energy previous year band 3 Inductive reactive energy previous year band 3 Transferred active energy previous year band 3 Capacitive reactive energy previous year band 3 Acquired active energy previous year band 4 Inductive reactive energy previous year band 4 Transferred active energy previous year band 4 Capacitive reactive energy previous year band 4

[mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh] [mWh] [mVArh

$1FC0 $1FC4 $1FC8 $1FCC $1FD0 $1FD4 $1FD8 $1FDC $1FE0 $1FE4 $1FE8 $1FEC $1FF0 $1FF4 $1FF8 $1FFC

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2FC0 $2FC2 $2FC4 $2FC6 $2FC8 $2FCA $2FCC $2FCE $2FD0 $2FD2 $2FD4 $2FD6 $2FD8 $2FDA $2FDC $2FDE

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

Acquired active energy current year band 1 Inductive reactive energy current year band 1 Transferred active energy current year band 1 Capacitive reactive energy current year band 1 Acquired active energy current year band 2 Inductive reactive energy current year band 2 Transferred active energy current year band 2 Capacitive reactive energy current year band 2 Acquired active energy current year band 3 Inductive reactive energy current year band 3 Transferred active energy current year band 3 Capacitive reactive energy current year band 3 Acquired active energy current year band 4 Inductive reactive energy current year band 4 Transferred active energy current year band 4 Capacitive reactive energy current year band 4



[-] [-] [-] [-] [-] [-] [-] [-] [-] [-] [-] [-] [-] [-] [-] [-]



TOTAL TIME BAND ENERGY COUNTER- Double format (Function code $03) N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A. N.A.

$2A60 $2A64 $2A68 $2A6C $2A70 $2A74 $2A78 $2A7C $2A80 $2A84 $2A88 $2A8C $2A90 $2A94 $2A98 $2A9C

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4


Total Acquired active energy band 1 Total Transferred active energy band 1 Total Inductive reactive energy band 1 Total Capacitive reactive energy band 1 Total Acquired active energy band 2 Total Transferred active energy band 2 Total Inductive reactive energy band 2 Total Capacitive reactive energy band 2 Total Acquired active energy band 3 Total Transferred active energy band 3 Total Inductive reactive energy band 3 Total Capacitive reactive energy band 3 Total Acquired active energy band 4 Total Transferred active energy band 4 Total Inductive reactive energy band 4 Total Capacitive reactive energy band 4 instruction manual

IM145-U v5.8

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VALUES STORED IN RAM (Function.code $03) Register HEX

Word

$1600 $1601 $1604 $1605 $1609

1 3 1 4 4

Reg. (IEEE) HEX $2600 $2601 $2604 $2605 $2607

Word 1 3 1 2 2

Description LOGICAL NUMBER YYMMDD nn= order no. of 15’energy value stored in a day ACTIVE 15’ REACTIVE 15’

M.U.

Type

[-] [-] [-] [mWh] [mVArh]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

U.M.

Type

[-] [-] [min]

(Unsigned) (Unsigned) (Unsigned)

U.M.

Type

[mV] [mV] [mV] [mV] [mV] [mV] [mV] [mV] [mA] [mA] [mA] [mA] [mA] [mA] [mA] [mA] [mW] [mW] [mW] [mW] [-] [-] [mW] [mW]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed)

MIN/MAX VALUES STORED IN RAM (Function.code $03) HEADER Register HEX

Word

$1B30 $1B33 $1B36

3 3 1

Reg. (IEEE) HEX $2B30 $2B33 $2B36

Word 3 3 1

Description YY MM DD HH MM SS time of mem

st

1 DATA BLOCK Register HEX

Word

Reg. (IEEE) HEX

Word

$1B47

4

$2B47

4

$1B4B $1B4F $1B53 $1B57 $1B5B $1B5F $1B63 $1B67 $1B6B $1B6F $1B73 $1B77 $1B7B $1B7F $1B83 $1B87 $1B8B $1B8F $1B93 $1B97 $1B9B $1B9F $1BA3 $1BA7

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2B4B $2B4D $2B4F $2B51 $2B53 $2B55 $2B57 $2B59 $2B5B $2B5D $2B5F $2B61 $2B63 $2B65 $2B67 $2B69 $2B6B $2B6D $2B6F $2B71 $2B73 $2B75 $2B77 $2B79

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2


Description Block num.(2 word) + $0 (1 word) + Block full of 0=NO/1=Yes (1 word) MIN 3-PHASE SYSTEM VOLTAGE MAX 3-PHASE SYSTEM VOLTAGE MIN PHASE VOLTAGE L1-N MAX PHASE VOLTAGE L1-N MIN PHASE VOLTAGE L2-N MAX PHASE VOLTAGE L2-N MIN PHASE VOLTAGE L3-N MIN PHASE VOLTAGE L3-N MIN 3-PHASE SYSTEM CURRENT MAX 3-PHASE SYSTEM CURRENT MIN LINE CURRENT L1 MAX LINE CURRENT L1 MIN LINE CURRENT L2 MAX LINE CURRENT L2 MIN LINE CURRENT L3 MAX LINE CURRENT L3 MIN 3 PHASE SYSTEM ACTIVE POWER MAX 3 PHASE SYSTEM ACTIVE POWER MIN 3 PHASE SYSTEM REACTIVE POWER MAX 3 PHASE SYSTEM REACTIVE POWER MIN 3 PHASE SYSTEM POWER FACTOR MAX 3 PHASE SYSTEM POWER FACTOR MIN 3 PHASE SYSTEM AVERAGE POWER MAX 3 PHASE SYSTEM AVERAGE POWER

instruction manual

IM145-U v5.8

pag. 38 / 65

2

ND

DATA BLOCK

Register HEX

Word

Reg. (IEEE) HEX

Word

$1BAB

4

$2B7B

4

$1BAF $1BB3 $1BB7 $1BBB $1BBF $1BC3 $1BC7 $1BCB $1BCF $1BD3 $1BD7 $1BDB $1BDF $1BE3 $1BE7 $1BEB $1BEF $1BF3 $1BF7 $1BFB $1BFF $1C03 $1C07 $1C0B

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2B7F $2B81 $2B83 $2B85 $2B87 $2B89 $2B8B $2B8D $2B8F $2B91 $2B93 $2B95 $2B97 $2B99 $2B9B $2B9D $2B9F $2BA1 $2BA3 $2BA5 $2BA7 $2BA9 $2BAB $2BAD

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

RD

3 .......10 RD

(3

TH

Block num.(2 word) + $0 (1 word) + Block full of 0=NO/1=Yes (1 word) MIN 3 PHASE SYSTEM VOLTAGE MAX 3 PHASE SYSTEM VOLTAGE MIN PHASE VOLTAGE L1-N MAX PHASE VOLTAGE L1-N MIN PHASE VOLTAGE L2-N MAX PHASE VOLTAGE L2-N MIN PHASE VOLTAGE L3-N MAX PHASE VOLTAGE L3-N MIN 3-PHASE SYSTEM CURRENT MAX 3-PHASE SYSTEM CURRENT MIN LINE CURRENT L1 MAX LINE CURRENT L1 MIN LINE CURRENT L2 MAX LINE CURRENT L2 MIN LINE CURRENT L3 MAX LINE CURRENT L3 MIN 3-PHASE SYSTEM ACTIVE POWER MAX 3-PHASE SYSTEM ACTIVE POWER MIN 3-PHASE SYSTEM REACTIVE POWER MAX 3-PHASE SYSTEM REACTIVE POWER MIN 3-PHASE SYSTEM POWER FACTOR MAX 3-PHASE SYSTEM POWER FACTOR MIN 3-PHASE SYSTEM AVERAGE POWER MAX 3-PHASE SYSTEM AVERAGE POWER

Type

[mV] [mV] [mV] [mV] [mV] [mV] [mV] [mV] [mA] [mA] [mA] [mA] [mA] [mA] [mA] [mA] [mW] [mW] [mW] [mW] [-] [-] [mW] [mW]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed) (Signed)

U.M.

Type

DATA BLOCK) Word

Reg. (IEEE) HEX

Word

$1C0F

4

$2BAF

4

……… ……… $1C6F

… … 4

……… ……… $2BE1

… … 2

TH

U.M.

DATA BLOCK

Register HEX

(4

Description

Description Block num.(2 word) + $0 (1 word) + Block full of 0=NO/1=Yes (1 word) ……………………………………………………... ……………………………………………………... MAX 3-PHASE SYSTEM AVERAGE POWER

……. ……. [mW]

.............. .............. (Signed)

DATA BLOCK)

Register HEX

Word

Reg. (IEEE) HEX

Word

$1C73

4

$2BE3

4

……… ……… $1CD3

… … 4

……… ……… $2C15

… … 2



instruction manual

IM145-U v5.8

U.M.

Type

……. ……. [mW]

.............. .............. (Signed)

pag. 39 / 65

TH

(5

DATA BLOCK)

Register HEX

Word

Reg. (IEEE) HEX

Word

$1CD7

4

$2C17

4

……… ……… $1D37

… … 4

……… ……… $2C49

… … 2

TH

(6


U.M.

Type

……. ……. [mW]

.............. .............. (Signed)

U.M.

Type

……. ……. [mW]

.............. .............. (Signed)

U.M.

Type

……. ……. [mW]

.............. .............. (Signed)

U.M.

Type

……. ……. [mW]

.............. .............. (Signed)

U.M.

Type

……. ……. [mW]

.............. .............. (Signed)

DATA BLOCK)

Register HEX

Word

Reg. (IEEE) HEX

Word

$1D3B

4

$2C4B

4

……… ……… $1D9B

… … 4

……… ……… $2C7D

… … 2


(7TH DATA BLOCK) Register HEX

Word

Reg. (IEEE) HEX

Word

$1D9F

4

$2C7F

4

……… ……… $1DFF

… … 4

……… ……… $2CB1

… … 2

TH

(8

Word

Reg. (IEEE) HEX

Word

$1E03

4

$2CB3

4

……… ……… $1E63

… … 4

……… ……… $2CE5

… … 2

TH


DATA BLOCK)

Register HEX

Word

Reg. (IEEE) HEX

Word

$1E67

4

$2CE7

4

……… ……… $1EC7

… … 4

……… ……… $2D19

… … 2

(10

Block num.(2 word) + $0 (1 word) + Block full of 0=NO/1=Yes (1 word) ……………………………………………………... ……………………………………………………... MAX 3-PHASE SYSTEM AVERAGE POWER

DATA BLOCK)

Register HEX

(9

Description

TH


DATA BLOCK)

Register HEX

Word

Reg. (IEEE) HEX

Word

$1ECB

4

$2D1B

4

……… ……… $1F2B

… … 4

……… ……… $2D4D

… … 2



instruction manual

IM145-U v5.8

U.M.

Type

……. ……. [mW]

.............. .............. (Signed)

pag. 40 / 65

HARMONICS VALUES STORED IN RAM (Function code $03) Register HEX

Word

$1660 $1661 $1664 $1665 $1669 $166D $1671 $1675 $1679 $167D $1681 $1685 $1689 $168D $1691 $1695 $1699 $169D $16A1 $16A5 $16A9 $16AD $16B1 $16B5 $16B9 $16BD $16C1 $16C5 $1900 $1904 $1908 $190C $1910 $1914

1 3 1 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

Reg. (IEEE) HEX $2660 $2661 $2664 $2665 $2667 $2669 $266B $266D $266F $2671 $2673 $2675 $2677 $2679 $267B $267D $267F $2681 $2683 $2685 $2687 $2689 $268B $268D $268F $2691 $2693 $2695 $2800 $2802 $2804 $2806 $2808 $280A

$16C9 $16CD $16D1 $16D5 $16D9 $16DD $16E1 $16E5 $16E9 $16ED $16F1 $16F5 $16F9 $16FD $1701 $1705 $1709 $170D $1711 $1715 $1719 $171D

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$2697 $2699 $269B $269D $269F $26A1 $26A3 $26A5 $26A7 $26A9 $26AB $26AD $26AF $26B1 $26B3 $26B5 $26B7 $26B9 $26BB $26BD $26BF $26C1

Word

Description

M.U.

Type

1 3 1 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

LOGICAL NUMBER YY MM DD nn=order number of 15’ in a day 1ST VOLTAGE HARMONIC OF THE L1 PHASE 2ND VOLTAGE HARMONIC OF THE L1 PHASE 3RD VOLTAGE HARMONIC OF THE L1 PHASE 4TH VOLTAGE HARMONIC OF THE L1 PHASE 5TH VOLTAGE HARMONIC OF THE L1 PHASE TH 6 VOLTAGE HARMONIC OF THE L1 PHASE 7TH VOLTAGE HARMONIC OF THE L1 PHASE 8TH VOLTAGE HARMONIC OF THE L1 PHASE 9TH VOLTAGE HARMONIC OF THE L1 PHASE 10TH VOLTAGE HARMONIC OF THE L1 PHASE 11TH VOLTAGE HARMONIC OF THE L1 PHASE 12TH VOLTAGE HARMONIC OF THE L1 PHASE 13TH VOLTAGE HARMONIC OF THE L1 PHASE 14TH VOLTAGE HARMONIC OF THE L1 PHASE 15TH VOLTAGE HARMONIC OF THE L1 PHASE 16TH VOLTAGE HARMONIC OF THE L1 PHASE TH 17 VOLTAGE HARMONIC OF THE L1 PHASE 18TH VOLTAGE HARMONIC OF THE L1 PHASE 19TH VOLTAGE HARMONIC OF THE L1 PHASE 20TH VOLTAGE HARMONIC OF THE L1 PHASE 21TH VOLTAGE HARMONIC OF THE L1 PHASE 22TH VOLTAGE HARMONIC OF THE L1 PHASE 23TH VOLTAGE HARMONIC OF THE L1 PHASE 24TH VOLTAGE HARMONIC OF THE L1 PHASE 25TH VOLTAGE HARMONIC OF THE L1 PHASE 26TH VOLTAGE HARMONIC OF THE L1 PHASE 27TH VOLTAGE HARMONIC OF THE L1 PHASE 28TH VOLTAGE HARMONIC OF THE L1 PHASE 29TH VOLTAGE HARMONIC OF THE L1 PHASE 30TH VOLTAGE HARMONIC OF THE L1 PHASE 31TH VOLTAGE HARMONIC OF THE L1 PHASE

[-] [-] [-] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1st VOLTAGE HARMONIC OF THE L2 PHASE 2ND VOLTAGE HARMONIC OF THE L2 PHASE RD 3 VOLTAGE HARMONIC OF THE L2 PHASE 4TH VOLTAGE HARMONIC OF THE L2 PHASE 5TH VOLTAGE HARMONIC OF THE L2 PHASE 6TH VOLTAGE HARMONIC OF THE L2 PHASE 7TH VOLTAGE HARMONIC OF THE L2 PHASE 8TH VOLTAGE HARMONIC OF THE L2 PHASE 9TH VOLTAGE HARMONIC OF THE L2 PHASE 10TH VOLTAGE HARMONIC OF THE L2 PHASE 11TH VOLTAGE HARMONIC OF THE L2 PHASE 12TH VOLTAGE HARMONIC OF THE L2 PHASE 13TH VOLTAGE HARMONIC OF THE L2 PHASE TH 14 VOLTAGE HARMONIC OF THE L2 PHASE 15TH VOLTAGE HARMONIC OF THE L2 PHASE 16TH VOLTAGE HARMONIC OF THE L2 PHASE 17TH VOLTAGE HARMONIC OF THE L2 PHASE 18TH VOLTAGE HARMONIC OF THE L2 PHASE 19TH VOLTAGE HARMONIC OF THE L2 PHASE 20TH VOLTAGE HARMONIC OF THE L2 PHASE 21TH VOLTAGE HARMONIC OF THE L2 PHASE 22TH VOLTAGE HARMONIC OF THE L2 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)


instruction manual

IM145-U v5.8

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$1711 $1725 $1729 $1918 $191C $1920 $1924 $1928 $192C

4 4 4 4 4 4 4 4 4

$26C3 $26C5 $26C7 $280C $280E $2810 $2812 $2814 $2816

2 2 2 2 2 2 2 2 2

23TH VOLTAGE HARMONIC OF THE L2 PHASE 24TH VOLTAGE HARMONIC OF THE L2 PHASE 25TH VOLTAGE HARMONIC OF THE L2 PHASE 26TH VOLTAGE HARMONIC OF THE L2 PHASE 27TH VOLTAGE HARMONIC OF THE L2 PHASE 28TH VOLTAGE HARMONIC OF THE L2 PHASE TH 29 VOLTAGE HARMONIC OF THE L2 PHASE 30TH VOLTAGE HARMONIC OF THE L2 PHASE 31TH VOLTAGE HARMONIC OF THE L2 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

$172D $1731 $1735 $1739 $173D $1741 $1745 $1749 $174D $1751 $1755 $1759 $175D $1761 $1765 $1769 $176D $1771 $1775 $1779 $177D $1781 $1785 $1789 $178D $1930 $1934 $1938 $193C $1940 $1944

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$26C9 $26CB $26CD $26CF $26D1 $26D3 $26D5 $26D7 $26D9 $26DB $26DD $26DF $26E1 $26E3 $26E5 $26E7 $26E9 $26EB $26ED $26EF $26F1 $26F3 $26F5 $26F7 $26F9 $2818 $281A $281C $281E $2820 $2822

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1ST VOLTAGE HARMONIC OF THE L3 PHASE 2ND VOLTAGE HARMONIC OF THE L3 PHASE 3RD VOLTAGE HARMONIC OF THE L3 PHASE 4TH VOLTAGE HARMONIC OF THE L3 PHASE 5TH VOLTAGE HARMONIC OF THE L3 PHASE 6TH VOLTAGE HARMONIC OF THE L3 PHASE 7TH VOLTAGE HARMONIC OF THE L3 PHASE 8TH VOLTAGE HARMONIC OF THE L3 PHASE 9TH VOLTAGE HARMONIC OF THE L3 PHASE 10TH VOLTAGE HARMONIC OF THE L3 PHASE 11TH VOLTAGE HARMONIC OF THE L3 PHASE 12TH VOLTAGE HARMONIC OF THE L3 PHASE 13TH VOLTAGE HARMONIC OF THE L3 PHASE 14TH VOLTAGE HARMONIC OF THE L3 PHASE 15TH VOLTAGE HARMONIC OF THE L3 PHASE 16TH VOLTAGE HARMONIC OF THE L3 PHASE 17TH VOLTAGE HARMONIC OF THE L3 PHASE 18TH VOLTAGE HARMONIC OF THE L3 PHASE 19TH VOLTAGE HARMONIC OF THE L3 PHASE 20TH VOLTAGE HARMONIC OF THE L3 PHASE 21TH VOLTAGE HARMONIC OF THE L3 PHASE 22TH VOLTAGE HARMONIC OF THE L3 PHASE 23TH VOLTAGE HARMONIC OF THE L3 PHASE 24TH VOLTAGE HARMONIC OF THE L3 PHASE 25TH VOLTAGE HARMONIC OF THE L3 PHASE 26TH OLTAGE HARMONIC OF THE L3 PHASE 27TH VOLTAGE HARMONIC OF THE L3 PHASE 28TH OLTAGE HARMONIC OF THE L3 PHASE 29TH OLTAGE HARMONIC OF THE L3 PHASE 30TH VOLTAGE HARMONIC OF THE L3 PHASE 31TH VOLTAGE HARMONIC OF THE L3 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]


$1791 $1795 $1799 $179D $17A1 $17A5 $17A9 $17AD $17B1 $17B5 $17B9 $17BD $17C1 $17C5 $17C9 $17CD $17D1 $17D5 $17D9 $17DD $17E1

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$26FB $26FD $26FF $2701 $2703 $2705 $2707 $2709 $270B $270D $270F $2711 $2713 $2715 $2717 $2719 $271B $271D $271F $2721 $2723

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1ST CURRENT HARMONIC OF THE L1 PHASE 2ND CURRENT HARMONIC OF THE L1 PHASE 3RD CURRENT HARMONIC OF THE L1 PHASE 4TH CURRENT HARMONIC OF THE L1 PHASE 5TH CURRENT HARMONIC OF THE L1 PHASE 6TH CURRENT HARMONIC OF THE L1 PHASE 7TH CURRENT HARMONIC OF THE L1 PHASE 8TH CURRENT HARMONIC OF THE L1 PHASE 9TH CURRENT HARMONIC OF THE L1 PHASE 10TH CURRENT HARMONIC OF THE L1 PHASE 11TH CURRENT HARMONIC OF THE L1 PHASE 12TH CURRENT HARMONIC OF THE L1 PHASE 13TH CURRENT HARMONIC OF THE L1 PHASE 14TH CURRENT HARMONIC OF THE L1 PHASE 15TH CURRENT HARMONIC OF THE L1 PHASE 16TH CURRENT HARMONIC OF THE L1 PHASE 17TH CURRENT HARMONIC OF THE L1 PHASE 18TH CURRENT HARMONIC OF THE L1 PHASE 19TH CURRENT HARMONIC OF THE L1 PHASE 20TH CURRENT HARMONIC OF THE L1 PHASE 21TH CURRENT HARMONIC OF THE L1 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)


instruction manual

IM145-U v5.8

pag. 42 / 65

$17E5 $17E9 $17ED $17F1 $1948 $194C $1950 $1954 $1958 $195C

4 4 4 4 4 4 4 4 4 4

$2725 $2727 $2729 $272B $2824 $2826 $2828 $282A $282C $282E

2 2 2 2 2 2 2 2 2 2

22TH CURRENT HARMONIC OF THE L1 PHASE 23TH CURRENT HARMONIC OF THE L1 PHASE 24TH CURRENT HARMONIC OF THE L1 PHASE 25TH CURRENT HARMONIC OF THE L1 PHASE 26TH CURRENT HARMONIC OF THE L1 PHASE 27TH CURRENT HARMONIC OF THE L1 PHASE TH 28 CURRENT HARMONIC OF THE L1 PHASE 29TH CURRENT HARMONIC OF THE L1 PHASE 30TH CURRENT HARMONIC OF THE L1 PHASE 31TH CURRENT HARMONIC OF THE L1 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

$17F5 $17F9 $17FD $1801 $1805 $1809 $180D $1811 $1815 $1819 $181D $1821 $1825 $1829 $182D $1831 $1835 $1839 $183D $1841 $1845 $1849 $184D $1851 $1855 $1960 $1964 $1968 $196C $1970 $1974

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$272D $272F $2731 $2733 $2735 $2737 $2739 $273B $273D $273F $2741 $2743 $2745 $2747 $2749 $274B $274D $274F $2751 $2753 $2755 $2757 $2759 $275B $275D $2830 $2832 $2834 $2836 $2838 $283A

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1STCURRENT HARMONIC OF THE L2 PHASE 2ND CURRENT HARMONIC OF THE L2 PHASE 3RD CURRENT HARMONIC OF THE L2 PHASE 4TH CURRENT HARMONIC OF THE L2 PHASE 5TH CURRENT HARMONIC OF THE L2 PHASE 6TH CURRENT HARMONIC OF THE L2 PHASE 7TH CURRENT HARMONIC OF THE L2 PHASE 8TH CURRENT HARMONIC OF THE L2 PHASE 9TH CURRENT HARMONIC OF THE L2 PHASE 10TH CURRENT HARMONIC OF THE L2 PHASE 11TH CURRENT HARMONIC OF THE L2 PHASE 12TH CURRENT HARMONIC OF THE L2 PHASE 13TH CURRENT HARMONIC OF THE L2 PHASE 14TH CURRENT HARMONIC OF THE L 2 PHASE 15TH CURRENT HARMONIC OF THE L2 PHASE 16TH CURRENT HARMONIC OF THE L2 PHASE 17TH CURRENT HARMONIC OF THE L2 PHASE 18TH CURRENT HARMONIC OF THE L2 PHASE 19TH CURRENT HARMONIC OF THE L2 PHASE 20TH CURRENT HARMONIC OF THE L2 PHASE 21TH CURRENT HARMONIC OF THE L2 PHASE 22TH CURRENT HARMONIC OF THE L2 PHASE 23TH CURRENT HARMONIC OF THE L2 PHASE 24TH CURRENT HARMONIC OF THE L2 PHASE 25TH CURRENT HARMONIC OF THE L2 PHASE 26TH CURRENT HARMONIC OF THE L2 PHASE 27TH CURRENT HARMONIC OF THE L2 PHASE 28TH CURRENT HARMONIC OF THE L2 PHASE 29TH CURRENT HARMONIC OF THE L2 PHASE 30TH CURRENT HARMONIC OF THE L2 PHASE 31TH CURRENT HARMONIC OF THE L2 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]


$1859 $185D $1861 $1865 $1869 $186D $1871 $1875 $1879 $187D $1881 $1885 $1889 $188D $1891 $1895 $1899 $189D $18A1 $18A5

4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4 4

$275F $2761 $2763 $2765 $2767 $2769 $276B $276D $276F $2771 $2773 $2775 $2777 $2779 $277B $277D $277F $2781 $2783 $2785

2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2

1ST CURRENT HARMONIC OF THE L3 PHASE 2ND CURRENT HARMONIC OF THE L3 PHASE 3RD CURRENT HARMONIC OF THE L3 PHASE 4TH CURRENT HARMONIC OF THE L3 PHASE 5TH CURRENT HARMONIC OF THE L3 PHASE 6TH CURRENT HARMONIC OF THE L3 PHASE 7TH CURRENT HARMONIC OF THE L3 PHASE 8TH CURRENT HARMONIC OF THE L3 PHASE 9TH CURRENT HARMONIC OF THE L3 PHASE 10TH CURRENT HARMONIC OF THE L3 PHASE 11TH CURRENT HARMONIC OF THE L3 PHASE 12TH CURRENT HARMONIC OF THE L3 PHASE 13TH CURRENT HARMONIC OF THE L3 PHASE 14TH CURRENT HARMONIC OF THE L3 PHASE 15TH CURRENT HARMONIC OF THE L3 PHASE 16TH CURRENT HARMONIC OF THE L3 PHASE 17TH CURRENT HARMONIC OF THE L3 PHASE 18TH CURRENT HARMONIC OF THE L3 PHASE 19TH CURRENT HARMONIC OF THE L3 PHASE 20TH CURRENT HARMONIC OF THE L3 PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)


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$18A9 $18AD $18B1 $18B5 $18B9 $1978 $197C $1980 $1984 $1988 $198C

4 4 4 4 4 4 4 4 4 4 4

$2787 $2789 $278B $278D $278F $283C $283E $2840 $2842 $2844 $2846

21TH CURRENT HARMONIC OF THE L3 22TH CURRENT HARMONIC OF THE L3 23TH CURRENT HARMONIC OF THE L3 24TH CURRENT HARMONIC OF THE L3 25TH CURRENT HARMONIC OF THE L3 26TH CURRENT HARMONIC OF THE L3 TH 27 CURRENT HARMONIC OF THE L3 28TH CURRENT HARMONIC OF THE L3 29TH CURRENT HARMONIC OF THE L3 30TH CURRENT HARMONIC OF THE L3 31TH CURRENT HARMONIC OF THE L3

2 2 2 2 2 2 2 2 2 2 2

PHASE PHASE PHASE PHASE PHASE PHASE PHASE PHASE PHASE PHASE PHASE

[%] [%] [%] [%] [%] [%] [%] [%] [%] [%] [%]

(Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned) (Unsigned)

M.U.

Type

[-] [-] [-] [-]

[-] [-] [-] [-]

M.U.

Type

ENERGY COUNTERS - Double format (Function code $03) Register HEX

Word

N.A. N.A. N.A. N.A.

Reg. (IEEE) HEX $2A50 $2A54 $2A58 $2A5C

Word 4 4 4 4

Description 3-PHASE SYS. ACTIVE ENERGY+ 3-PHASE SYS. ACTIVE ENERGY3-PHASE SYS. REACTIVE EN.+ 3-PHASE SYS. REACTIVE.EN.-

ANALOG OUTPUT PWM VALUES (Function code $03) (Returned values: 0=0mA ÷ 255=20mA)

$1A1A $1A1B $1A1C

2 2 2

Reg. (IEEE) HEX N.A. N.A. N.A.

$1A1D

2

N.A.

Register HEX

Word

Word

Description

[-] [-] [-]

PWM ANALOG OUTPUT 1 PWM ANALOG OUTPUT 2 PWM ANALOG OUTPUT 3

[-] [-] [-]

[-] [-] [-]

[-]

PWM ANALOG OUTPUT 4

[-]

[-]

M.U.

Type

[-] [-] [-] [-] [-] [-]

[-] [-] [-] [-] [-] [-]

WAVEFORM’S SAMPLES (Function code $03) (64 x integer value) Register HEX

Word

$1F30 $1F32 $1F34 $1F36 $1F38 $1F3A

64 64 64 64 64 64

Reg. (IEEE) HEX N.A. N.A. N.A. N.A. N.A. N.A.

Word


[-] [-] [-] [-] [-] [-]

Description 64 SAMPLES OF LINE VOLTAGE L1 64 SAMPLES OF LINE VOLTAGE L2 64 SAMPLES OF LINE VOLTAGE L3 64 SAMPLES OF LINE CURRENT L1 64 SAMPLES OF LINE CURRENT L2 64 SAMPLES OF LINE CURRENT L3

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ONLY READ ANR PARAMETERS (Function code $03) Register HEX $1A00 $1A05

Word 7 5

$1A0D

1

$1A0E

1

$1A0F

1

NUMBER OF DIGITAL OUTPUTS

$1A10

1

NUMBER OF ANALOG OUTPUTS

$1A11

1

NUMBER OF DIGITAL INPUTS

$1A12

9

INFO STORAGE AVG.POWERS

$1A13 $1A14 $1A15 $1A18

9 9 9 2

INFO STORAGE MIN./MAX INFO STORAGE HARMONICS INFO STORAGE SAMPLES HARDWARE & OPTIONS INFO

$1A19

1

SUB-VERSION FIRMWARE

$1A28

1

BAUD RATE

$1A29

1

PARITY

$1A2A

1

BIT

$1ADB

1

DIGITAL INPUT STATUS

$1ADC

1

DIGITAL OUTPUT STATUS


Description SERIAL NUMBER VERSION NUMBER

Range XXXXXXXXX XXX.XXXX 1=32 kB 2=128 kB 3=256 kB 4=512 kB 5=1024 Kb 1=mono 2=bidir. 0=none 1=1 ecc.=ecc. 0=none 1=1 ecc.=ecc. 0=none 1=1 ecc.=ecc. bit1÷2: status (0=OFF; 1= ON) (int) bit3÷6: number of records (long) bit7÷10: memory reserved (KB) (float) bit11÷14: memory used (KB) (float) bit15÷18: memory free (KB) (float) as before as before as before bit0: harmonics (0=dis.; 1=en.) bit1: time bands (0=dis.; 1=en.) bit2÷3: N.A. bit4÷7: number of Dig.Inp (0÷15) bit8÷11: number of Dig.Out (0÷15) bit12÷15: number of An.Out (0÷15) bit16÷31: N.A. XX 2=1200 baud 3=2400 baud 4=4800 baud 5=9600 baud 6=19200 baud 0=none 1=even parity 2=odd parity 7=7 bit 8=8 bit bit(n)=DI(n+1) n=0..5 (0=OFF; 1=ON) bit(n)=DI(n+1) n=0..5 (0=OFF; 1=ON)

TYPE OF RAM

BI/MO DIRECTIONAL

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IM145-U v5.8

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READ & WRITE ANR PARAMETERS (Function code $03 & $10) NOTE: the variable indicated by yes resets the instrument. Wait 1 second before sending another command Register HEX

Word

$1A16

1

ENERGY TYPE

$1A20 $1A21

1 3

LOGICAL NUMBER DATE

$1A24

1

DAY OF WEEK

$1A25 $1A2B $1A2C

3 1 1

TIME TRANSFORM RATIO KCT TRANSFORM RATIO KVT

$1A2D

1

SYNCHRO TYPE

$1A2E $1A2F $1A30 $1A40

1 1 1 1

FREQUENCY TIME FOR AVERAGE BACKLIGHT ON TIME (sec) MIN/MAX TIME TO STORE IN RAM

$1A41

1

MIN/MAX 3-PH.VOLTAGE STORE

$1A42

1

MIN/MAX VOLTAGE L1-N STORE

$1A43

1


$1A44

1


$1A45

1

MIN/MAX 3PH.CURRENT STORE

$1A46

1

MIN/MAX CURRENT L1 STORE

$1A47

1


$1A48

1


$1A49

1

MIN/MAX ACTIVE POWER STORE

$1A4A

1

MIN/MAX APP.POWER STORE

$1A4B

1

MIN/MAX POWER FACT.STORE

$1A4C

1

MIN/MAX AV.POWER STORE

$1ADA

1

DIGITAL INPUT TYPE

$1ADD

1

WIRING MODE

$2A32 $2A34 $2A36

2 2 2

TRANFORM CT RATIO floating point TRANFORM VT RATIO floating point FORCED FREQUENCY floating point

Description


instruction manual

Range 0=normal(kWh-kVArh) 1=heavy (MWh-MVArh) 01-255 YY MMDD 1=monday 2=tuesday 3=wednesday 4=thursday 5=friday 6=saturday 7=sunday HH MM SS 1÷2500 1÷3000 0=intemal 1=extemal 5÷500 1÷99 0÷360 1-9999 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=do not store 1=store 0=not used 1=sync.rtc 2=periods 3=generic counters 4=GMC 5=GME 6=ELKO 0=4 wire 1=3 wire 2=Aron 0.01÷9999.99 0.01÷9999.99 5.00÷500.00 IM145-U v5.8

Reset YES YES YES

NO

NO YES YES NO NO YES NO NO NO NO NO NO NO NO NO NO NO NO NO NO

YES

YES YES YES (readonly) pag. 46 / 65

TIMEBANDS- TARIFF PERIOD 1 Register HEX $3100 $3103 $3106 $3109 $310C $310F $3112 $3115 $3118 $3119

Word 3 3 3 3 3 3 3 3 1 1

Description Hours and Minutes and band of begin the 1st tariff band Hours and Minutes and band of begin the 2nd tariff band Hours and Minutes and band of begin the 3rd tariff band Hours and Minutes and band of begin the 4th tariff band Hours and Minutes and band of begin the 5th tariff band Hours and Minutes and band of begin the 6th tariff band Hours and Minutes and band of begin the 7th tariff band Hours and Minutes and band of begin the 8th tariff band DAY selecting MONTH selecting

Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)

NO NO NO NO NO NO NO NO NO NO

(1) it defines the beginning (hours and minutes) of each tariff band during the day. it is possible to input up to 8 changes during the day. it is possible to set four different bands (0,1,2,3). st i.e.: to program the start of 2 tariff band (1) at 06:00 send $0006,$0000,$0001 (2) DAY: Programming: put to 1 the Bit relative to the day which are selected. X Mo

X Tu

X We

X Th

X Fr

X Sa

X Su

0

0

0

0

0

0

0

0

0

0

0

i.e.:to program all day from Monday to Friday send $F800 (3) MONTH X Ja

X Fe

Programming: put to 1 the Bit relative to the month which are selected. X Ma

X Ap

X Ma

X Ju

X Ju

X Au

X Se

X Oc

X No

X De

0

0

i.e.:to programming the month of November,December,January,February and March send $E030 TIMEBANDS-TARIFF PERIOD 2 Register HEX $311A $311D $3120 $3123 $3126 $3129 $312C $312F $3132 $3133

Word 3 3 3 3 3 3 3 3 1 1

Description st

Hours and Minutes and band of begin the 1 tariff band Hours and Minutes and band of begin the 2nd tariff band Hours and Minutes and band of begin the 3rd tariff band Hours and Minutes and band of begin the 4th tariff band Hours and Minutes and band of begin the 5th tariff band Hours and Minutes and band of begin the 6th tariff band Hours and Minutes and band of begin the 7th tariff band Hours and Minutes and band of begin the 8th tariff band DAY selecting MONTH selecting

Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


TIMEBANDS-TARIFF PERIOD 3 Register HEX $3134 $3137 $313A $313D $3140 $3143 $3146 $3149 $314C $314D

Word 3 3 3 3 3 3 3 3 1 1

Description st

Hours and Minutes and band of begin the 1 tariff band Hours and Minutes and band of begin the 2nd tariff band Hours and Minutes and band of begin the 3rd tariff band Hours and Minutes and band of begin the 4th tariff band Hours and Minutes and band of begin the 5th tariff band Hours and Minutes and band of begin the 6th tariff band Hours and Minutes and band of begin the 7th tariff band Hours and Minutes and band of begin the 8th tariff band DAY selecting MONTH selecting


instruction manual

IM145-U v5.8

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TIMEBANDS-TARIFF PERIOD 4 Register HEX $314E $3151 $3154 $3157 $315A $315D $3160 $3163 $3166 $3167

Word 3 3 3 3 3 3 3 3 1 1


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


TIMEBANDS-TARIFF PERIOD 5 Register HEX $3168 $316B $316E $3171 $3174 $3177 $317A $317D $3180 $3181

Word 3 3 3 3 3 3 3 3 1 1

Description Hours and Minutes and band of begin the 1st tariff band Hours and Minutes and band of begin the 2nd tariff band rd Hours and Minutes and band of begin the 3 tariff band Hours and Minutes and band of begin the 4th tariff band Hours and Minutes and band of begin the 5th tariff band Hours and Minutes and band of begin the 6th tariff band Hours and Minutes and band of begin the 7th tariff band Hours and Minutes and band of begin the 8th tariff band DAY selecting MONTH selecting

TIMEBANDS-TARIFF PERIOD 6 Register HEX $3182 $3185 $3188 $318B $318E $3191 $3194 $3197 $319A $319B

Word 3 3 3 3 3 3 3 3 1 1


TIMEBANDS-TARIFF PERIOD 7 Register HEX $319C $319F $31A2 $31A5 $31A8 $31AB $31AE $31B1 $31B4 $31B5

Word 3 3 3 3 3 3 3 3 1 1



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TIMEBANDS-TARIFF PERIOD 8 Register HEX $31B6 $31B9 $31BC $31BF $31C2 $31C5 $31C8 $31CB $31CE $31CF

Word 3 3 3 3 3 3 3 3 1 1


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


Range

Reset

(1) (1) (1) (1) (1) (1) (1) (1) (2) (3)


TIMEBANDS-TARIFF PERIOD 9 Register HEX $31D0 $31D3 $31D6 $31D9 $31DC $31DF $31E2 $31E5 $31E8 $31E9

Word 3 3 3 3 3 3 3 3 1 1

Description Hours and Minutes and band of begin the 1st tariff band Hours and Minutes and band of begin the 2nd tariff band rd Hours and Minutes and band of begin the 3 tariff band Hours and Minutes and band of begin the 4th tariff band Hours and Minutes and band of begin the 5th tariff band Hours and Minutes and band of begin the 6th tariff band Hours and Minutes and band of begin the 7th tariff band Hours and Minutes and band of begin the 8th tariff band DAY selecting MONTH selecting

TIMEBANDS-TARIFF PERIOD 10 Register HEX $31EA $31ED $31F0 $31F3 $31F6 $31F9 $31FC $31FF $3202 $3203

Word 3 3 3 3 3 3 3 3 1 1



instruction manual

IM145-U v5.8

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HOLYDAYS (read only) Register HEX $3400 $3401 $3402 $3403 $3404 $3405 $3406 $3407 $3408 $3409 $340A $340B $340C $340D $340E $340F $3410 $3411 $3412 $3413 $3414 $3415 $3416 $3417 $3418 $3419 $341A $341B $341C $341D $341E $341F $3420 $3421 $3422 $3423 $3424 $3425 $3426 $3427 $3428 $3429 $342A $342B $342C $342D $342E $342F $3430 $3431 $3432 $3433 $3434 $3435 $3436 $3437 $3438 $3439 $343A

Word 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1

Description day of holyday no. 1 month of holyday no. 1 day of holyday no. 2 month of holyday no. 2 day of holyday no. 3 month of holyday no. 3 day of holyday no. 4 month of holyday no. 4 day of holyday no. 5 month of holyday no. 5 day of holyday no. 6 month of holyday no. 6 day of holyday no. 7 month of holyday no. 7 day of holyday no. 8 month of holyday no. 8 day of holyday no. 9 month of holyday no. 9 day of holyday no. 10 month of holyday no. 10 day of holyday no. 11 month of holyday no. 11 day of holyday no. 12 month of holyday no. 12 day of holyday no. 13 month of holyday no. 13 day of holyday no. 14 month of holyday no. 14 day of holyday no. 15 month of holyday no. 15 day of holyday no. 16 month of holyday no. 16 day of holyday no. 17 month of holyday no. 17 day of holyday no. 18 month of holyday no. 18 day of holyday no. 19 month of holyday no. 19 day of holyday no. 20 month of holyday no. 20 day of holyday no. 21 month of holyday no. 21 day of holyday no. 22 month of holyday no. 22 day of holyday no. 23 month of holyday no. 23 day of holyday no. 24 month of holyday no. 24 day of holyday no. 25 month of holyday no. 25 day of holyday no. 26 month of holyday no. 26 day of holyday no. 27 month of holyday no. 27 day of holyday no. 28 month of holyday no. 28 day of holyday no. 29 month of holyday no. 29 day of holyday no. 30


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$343B $343C $343D $343E $343F $3440 $3441 $3442 $3443 $3444 $3445 $3446 $3447 $3448 $3449 $344A $344B $344C $344D $344E $344F

1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1

month of holyday no. 30 day of holyday no. 31 month of holyday no. 31 day of holyday no. 32 month of holyday no. 32 day of holyday no. 33 month of holyday no. 33 day of holyday no. 34 month of holyday no. 34 day of holyday no. 35 month of holyday no. 35 day of holyday no. 36 month of holyday no. 36 day of holyday no. 37 month of holyday no. 37 day of holyday no. 38 month of holyday no. 38 day of holyday no. 39 month of holyday no. 39 day of holyday no. 40 month of holyday no. 40

GENERIC COUNTERS VALUES- Double format Register HEX $2B00 $2B02 $2B04 $2B06 $2B08 $2B0A $2B0C $2B0E

Word 4 4 4 4 4 4 4 4

Description Generic Counter 1 Value Generic Counter 2 Value Generic Counter 3 Value Generic Counter 4 Value Generic Counter 5 Value Generic Counter 6 Value Generic Counter 7 Value Generic Counter 8 Value

Range

Reset

0÷99999999.9 0÷99999999.9 0÷99999999.9 0÷99999999.9 0÷99999999.9 0÷99999999.9 0÷99999999.9 0÷99999999.9

NO NO NO NO NO NO NO NO

GENERIC COUNTERS SETTINGS Register Word Description Range HEX $2B10 7 Generic Counter 1 Setting (*) $2B12 7 Generic Counter 2 Setting (*) $2B14 7 Generic Counter 3 Setting (*) $2B16 7 Generic Counter 4 Setting (*) $2B18 7 Generic Counter 5 Setting (*) $2B1A 7 Generic Counter 6 Setting (*) $2B1C 7 Generic Counter 7 Setting (*) $2B1E 7 Generic Counter 8 Setting (*) (*) Description: Byte(s) Read/Write 1: Counter (i) -> Digital Input association 2: Counter’s name type (0=kWh+; 1=kWh-; 2=kVArh+; 3=kVArh-; 4=Water; 5=Gas; 6=User.) 3÷10: Counter’s name (ASCII codes) 11÷14: Pulse’s weight (0÷1999.99)


instruction manual

IM145-U v5.8

Reset NO NO NO NO NO NO NO NO

pag. 51 / 65

ONLY WRITE ANR PARAMETERS (Function code $10) Register HEX $1A90

Word 1

Description DELETING RAM

$1A91

1

SET RAM STORING

$1A92

1

15’ STORED IN RAM

$1A93

1

MIN/MAX STORED IN RAM

$1A94

1

HARMONICS STORED IN RAM

$1A95

1

SAMPLES STORED IN RAM

$1A96

1

CONSUMPTION ENERGY COUNTER

$1A97

1

MIN/MAX VALUES

Range 9=deleting all archives 0=nothing 1=15’ 2=min/max 3=15’+min/max 4=armonics 5=15’+armonics 6=min/max+armonics 7=15’+min/max+armonics 8=sample 9=15’+sample A=min/max+sample B=15’+min/max+sample C=armonics+sample D=15’+armonics+sample E=min/max+armonics+sample F=15’+min/max+armonics+sample 0=nothing 1=delete first one 0=nothing 1=sending the following block 2=deleting all min/max value in RAM 0=nothing 1=delete first one 0=nothing 1=delete first one 1=reset count B0...B3 2=reset timebands 3=reset all 1=reset all

Reset YES

YES

YES NO NO NO YES NO

DIGITAL OUT 1 Register HEX $1AA0

Word 1

$1AA1 $1AA2 $1AA3 $1AA4 $1AA5 $1AA6 $2AA8 $2AAA $2AAC

1 1 1 1 1 1 2 2 2

Description MODE

VARIABLE PULSE COEFFICIENT PULSE DURATION (msec) INTERVENTION VALUE (integer) HYSTERISIS DELAY TIME in sec FLOAT INTERVENTION VALUE FLOAT INF. BAND VALUE FLOAT SUP.BAND VALUE


instruction manual

Range 0= off 1= upper limit 2= lower limit 3= pulse 4= band 5= always on 80-BC 0÷9.999 50÷999 0-99 0-999

IM145-U v5.8

Reset YES

YES YES YES YES YES YES YES YES YES

pag. 52 / 65

DIGITAL OUT 2 Register HEX $1AB0

Word 1

$1AB1 $1AB2 $1AB3 $1AB4 $1AB5 $1AB6 $2AB8 $2ABA $2ABC

1 1 1 1 1 1 2 2 2

Description MODE

VARIABLE PULSE COEFFICIENT PULSE DURATION (msec) INTERVENTION VALUE HYSTERISIS DELAY TIME in sec FLOAT INTERVENTION VALUE FLOAT INF. BAND VALUE FLOAT SUP.BAND VALUE

Range 0= off 1= upper limit 2= lower limit 3= pulse 4= band 5= always on 80-BC 0÷9.999 50÷999

Reset YES


0-99 0-999

DIGITAL OUT 3 Register HEX $1AC0

Word 1

$1AC1 $1AC2 $1AC3 $1AC4 $1AC5 $1AC6 $2AC8 $2ACA $2ACC

1 1 1 1 1 1 2 2 2

Description MODE



Reset YES


0-99 0-999

DIGITAL OUT 4 Register HEX $1AD0

Word 1

$1AD1 $1AD2 $1AD3 $1AD4 $1AD5 $1AD6 $2AD8 $2ADA $2ADC

1 1 1 1 1 1 2 2 2

Description MODE



instruction manual


IM145-U v5.8

Reset YES


pag. 53 / 65

DIGITAL OUT 5 Register HEX $1A70

Word 1

$1A71 $1A72 $1A73 $1A74 $1A75 $1A76 $2AE8 $2AEA $2AEC

1 1 1 1 1 1 2 2 2

Description MODE



Reset YES


0-99 0-999

DIGITAL OUT 6 Register HEX $1A80

Word 1

$1A81 $1A82 $1A83 $1A84 $1A85 $1A86 $2AF8 $2AFA $2AFC

1 1 1 1 1 1 2 2 2

Description MODE



Reset YES


ANALOG OUT1 Register HEX

Word

Description

$1AE0

1

MODE

$1AE1 $1AE2 $1AE3

1 1 1

VARIABLE MIN LIMIT VALUE MAX.LIMIT VALUE

Range 0=0-20mA mono 1=4-20mA mono 80..BC YES YES

Reset


Reset


Reset

YES YES

ANALOG OUT 2 Register HEX

Word

Description

$1AE8

1

MODE

$1AE9 $1AEA $1AEB

1 1 1


YES YES


Word

Description

$1AF0

1

MODE

$1AF1 $1AF2 $1AF3

1 1 1



instruction manual

IM145-U v5.8

YES YES

pag. 54 / 65


Word

Description

$1AF8

1

MODE

$1AF9 $1AFA $1AFB

1 1 1



Reset

Range 0= off 1= sync. RTC 2= Timeband (with Digital In 2)

Reset

Range 0= off 1= sync. RTC 2= Timeband (with Digital In 2)

Reset

YES YES

DIGITAL IN 1 Register HEX

Word

$1ADA

1

Description MODE

YES

DIGITAL IN 2 Register HEX

Word

$1ADB

1

Description MODE

YES

ADVICE:PROGRAM OUTPUT PARAMETERS ALL AT THE SAME TIME TO PREVENT THE INSTRUMENT FROM RESETTING REPEATEDLY,THUS AVOIDING TIME WASTE


instruction manual

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2.8)

EXAMPLE OF READING AND SETUP REGISTERS

READING OF THE VALUES OF 4 CURRENTS (Function Code $03) QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Error Check (LRC or CRC)

RESPONSE Example (Hex) 01 03 10 1C 00 10 ?? ??

Field Name Slave Address Function Code Byte Count Data Hi | Value Data Lo | with Data Hi | 4 Data Lo | word Data Hi | for Data Lo | each Data Hi | current Data Lo |

Example (Hex) 01 03 20

Or (for IEEE) Data Hi | Value Data Lo | with 2 Data Hi | for each Data Lo | current Error Check (LRC or CRC)

?? ??

SET UP OF THE LOGICAL NUMBER [Slave Address] (Function Code $10) QUERY

RESPONSE

Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Logical Number Error Check (LRC or CRC)

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo 20 Number Of Word Hi 00 Number Of Word Lo 01 Error Check (LRC or CRC) ?? ??

Example (Hex) 01 10 1A 20 00 01 02 (1) (*) ?? ?? (*) Accepted values:from $01 to $FF

READING OFTHE SERIAL COMMUNICATION PARAMETERS (Function Code $03) QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Baud Rate Hi Baud Rate Lo Parity Hi Parity Lo Bit Hi Bit Lo Error Check (LRC or CRC)

RESPONSE Example (Hex) 01 03 1A 28 00 03 01 00 03 (1) 00 01 (2) 00 08 (3) ?? ??


(1): Baud Rate=2400 Baud (2): Parity=Even (3): Bit=8/RTU


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SET UP OF THE DATE/HOUR/DAY (Function Code $10) QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Year Hi Year Lo Month Hi Month Lo Day Hi Day Lo Hours Hi Hours Lo Minutes Hi Minutes Lo Second Hi Second Lo Day of Week Hi Day of Week Lo Error Check (LRC or CRC)

RESPONSE Example (Hex) 01 10 1A 21 00 07 0E 00 ?? 5F (1) 00 0A (2) 00 05 (3) 00 09 (4) 00 2A (5) 00 00 (6) 00 04 (7) ?? ??

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo 21 Number Of Word Hi 00 Number Of Word Lo 07 Error Check (LRC or CRC) ??

(1): Year=95 (2): Month=10 (3): Day=05 (4): Hours=09 (5): Minutes=42 (6). Second=00 (7): Day Of Week= THURSDAY SET UP OF THE CTS & VTS TRANSFORM RATIOS (Function Code $ 10) QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count CTS Hi CTS Lo VTS Hi VTS Lo Error Check (LRC or CRC)

RESPONSE Example (Hex) 01 10 1A 2B 00 02 04

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo 2B Number Of Word Hi 00 Number Of Word Lo 02 Error Check (LRC or CRC) ?? 01 ??

2C (1) 00 64 (1) ?? ??

(1): CTS=300 (1.500/5) (1): VTS=100 (10.000/100)


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SET UP OF THE PULSE DIGITAL OUTPUTS PARAM.(Function Code $10) QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Mode Hi Mode Lo Associated Variable Hi Associated Variable Lo Pulse Coefficient Hi Pulse Coefficient Lo Pulse Duration Time Hi Pulse Duration Time Lo Error Check (LRC or CRC) (1): (2): (3): (4):

RESPONSE Example (Hex) 01 10 1A A0 00 04 08 00 03 (1) 00 B0 (2) 00 7D (3) 00 FA (4) ?? ??

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo A0 Number Of Word Hi 00 Number Of Word Lo 04 Error Check (LRC or CRC) ?? ??

Mode = Pulse Associated Variable = 3-Phase System Active Energy Pulse Coefficient = 0,125 Pulse Duration Time = 250 msec.

SET UP OF THE THRESHOLD DIGITAL OUTPUTS (Function Code $ 10) QUERY

RESPONSE

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo A0 Number Of Word Hi 00 Number Of Word Lo 07 Byte Count 0E Mode Hi 00 Mode Lo 01 (1) Associated Variable Hi 00 Associated Variable Lo 81 (2) Pulse Coefficient Hi 00 Pulse Coefficient Lo 00 (3) Pulse Duration Time Hi 00 Pulse Duration Time Lo 00 (4) Intervention Percentage Value (Set) Hi 0B Intervention Percentage Value (Set) Lo B8 (5) Histeresys Percentage Value Hi 00 Histeresys Percentage Value Lo 05 (6) Delay Time On Threshold Intervention Hi 00 Delay Time On Threshold Intervention Lo 10 (7) Error Check (LRC or CRC) ?? ??

Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Error Check (LRC or CRC) ??

(1): (2): (3): (4): (5): (6): (7):

Example (Hex) 01 10 1A A0 00 07 ??

Mode = Upper limit Associated Variable = Phase Vloltage L1-N Pulse Coefficient = it has not effect in upper limit mode Pulse Duration Time = it has not effect in upper limit mode Intervention Value (Set) = 3000V Histeresys Percentage Value = 5 % Delay Time On Threshold Intervention = 16 sec.


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SET UP OF THE ANALOG OUTPUTS PARAM.(Function Code $ 10) QUERY

RESPONSE

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo E0 Number Of Word Hi 00 Number Of Word Lo 04 Byte Count 08 Mode Hi 00 Mode Lo 00 (1) Associated Variable Hi 00 Associated Variable Lo A0 (2) Percentage Minimun Value Hi 17 Percentage Minimum Value Lo 70 (3) Percentage Maximun Value Hi 1D Percentage Maximum Value Lo 4C (4) Error Check (LRC or CRC) ?? ??

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo E0 Number Of Word Hi 00 Number Of Word Lo 04 Error Check (LRC or CRC) ?? ??

(1): Mode = 0+20mA bidirectional (2): Associated Variable = 3-Phase System Active Power (3): Percentage Minimum Value = 60,00% (4): Percentage Maximum Value = 75.00% SETUP THE 15’ AV.POWER STORING (Function Code $ 10) QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Data stored in RAM Hi Data stored in Ram Lo Error Check (LRC or CRC)

RESPONSE Example (Hex) 01 10 1A 91 00 01 02 00 01 ?? ??



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15’ AV.POWER VALUES STORED IN RAM TRANSFER (Funct.Code $ 03 & 10) QUERY A (reading of the 15’ energy counter value of the instrument ANR)

RESPONSE A (if the questioned ANR has no value stored in memory)

Field Name Example (Hex) Slave Address 01 Function Code 03 Starting Address Hi 16 (IEEE=26) Starting Address Lo 00 (IEEE=00) Number Of Word Hi 00 (IEEE=00) Number Of Word Lo 0D (IEEE=09) Error Check (LRC or CRC) ?? ??

Field Name Slave Address Function Code Error Code Error Check (LRC or CRC) ??

Example (Hex) 01 83 ??

RESPONSE A (if the questioned ANR has stored more than one 15’ energy value) Field Name Example (Hex) Slave Address 01 Function Code 03 Byte Count 1A Logical number Hi 00 Logical number Lo 01 Year Hi 00 Year Lo 5F = 96 Mounth Hi 00 Mounth Lo 08 = 08 Day Hi 00 Day Lo 1A = 26 order number of 15’ energy value Hi 00 order number of 15’ energy value Lo 05 = 05 Data Hi | Value with 4 word x 15’ Data Lo | active energy Data Hi | Data Lo | Data Hi | Value with 4 word x 15’ Data Lo | reactive energy Data Hi | Data Lo | or (for IEEE) Data Hi Data Lo Data Hi Data Lo Error Check (LRC or CRC)

| Value with 2 word x 15’ | active energy | Value with 2 word x 15’ | reactive energy ?? ??

QUERY B (Erasing from the instrument the value just read. It’s necessary to archive the following value)

RESPONSE B

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo 92 Number Of Word Hi 00 Number Of Word Lo 01 Byte Count 02 Delate first 15’ stored in Ram Hi 00 Delete first 15’ stored in Ram Lo 01 Error Check (LRC or CRC) ?? ??



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SETUP THE MIN/MAX VALUES STORING (Function Code $ 10) QUERY A (setup the data to store in RAM)

RESPONSE A

Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Data stored in RAM Hi Data stored in RAM Lo Error Check (LRC or CRC)


Example (Hex) 01 10 1A 91 00 01 02 00 02 ?? ??

QUERY B (setup the MIN/MAX value and time to store in RAM)

RESPONSE B

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo 40 Number Of Word Hi 00 Number Of Word Lo 0D Byte Count 1A Time to store in RAM HI 00 Time to store in RAM Lo 02 3-Phase System Voltage Hi 00 3-Phase System Voltage Lo 01 =Store ON Phase L1-N Voltage Hi 00 Phase L1-N Voltage Lo 00 =Store OFF Phase L2-N Voltage Hi 00 Phase L2-N Voltage Lo 00 =Store OFF 00 Phase L3-N Voltage Hi 00 =Store OFF Phase L3-N Voltage Lo 3-Phase System Current Hi 00 3-Phase System Current Lo 01 =Store ON Phase L1 Current Hi 00 00 =Store OFF Phase L1 Current Lo 00 Phase L2 Current Hi 00 =Store OFF Phase L2 Current Lo 00 Phase L3 Current Hi 00 =Store OFF Phase L3 Current Lo 3-Phase System Active Power Hi 00 3-Phase System Active Power Lo 01 =Store ON 3-Phase System Apparent Power Hi 00 3-Phase System Apparent Power Lo 01 =Store ON 3-Phase System Power Factor Hi 00 3-Phase System Power Factor Lo 01 =Store ON 3-Phase System Average Power Hi 00 3-Phase System Average Power Lo 01 =Store ON Error Check (LRC or CRC) ?? ??

Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Error Check (LRC or CRC)


instruction manual

IM145-U v5.8

Example (Hex) 01 10 1A 40 00 0D ?? ??

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MIN/MAX VALUES STORED IN RAM TRANSFER (Function Code $ 03 & $ 10) QUERY A (reading of the data format of the MIN/MAX values stored in the RAM of the instrument ANR)

RESPONSE A (if the questioned ANR has no value stored in memory)


Field Name Slave Address Function Code Error Code Error Check (LRC or CRC)

Example (Hex) 01 03 1B 30 00 07 ?? ??

RESPONSE A (if the questioned ANR has stored more than one MIN/MAX value) Field Name Slave Address Function Code Byte Count Start recorder Year Hi Start recorder Year Lo Start recorder Mounth Hi Start recorder Mounth Lo Start recorder Day Hi Start recorder Day Lo Start recorder Hour Hi Start recorder Hour Lo Start recorder Minute Hi Start recorder Minute Lo Start recorder Second Hi Start recorder Second Lo Storing time (minutes) Hi Storing time (minutes) Lo Error Check (LRC or CRC)

QUERY B (reading of the first group of MIN/MAX stored data in the RAM of the instrument ANR)

RESPONSE B

Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Error Check (LRC or CRC)

Field Name Slave Address Function Code Byte Count Block num (a) Hi Block num (a) Lo Block num (b) Hi Block num (b) Lo Null word Block full Hi Block full Lo : : 1st group of MIN/MAX : : Error Check (LRC or CRC)

Example (Hex) 01 03 1B 47 00 64 C8 ?? ??

QUERY C (reading of the tenth group of MIN/MAX stored data in the RAM of the instrument ANR)

RESPONSE C

Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Error Check (LRC or CRC)

Field Name Slave Address Function Code Byte Count : : 10st group of MIN/MAX : : Error Check (LRC or CRC)

Example (Hex) 01 03 1E CB 00 64 C8 ?? ??


Example (Hex) 01 83 09 ?? ??

instruction manual

Example (Hex) 01 0E 1A 00 5F = 95 00 08 = 08 00 1A = 26 00 10 = 10 00 2A = 42 00 2D = 45 00 02 = 02 ?? ??

Example (Hex) 01 03 C8 00 00 00 01 00 0A 12 | MIN/MAX | Values | with 100 | Word | ($64) ?? ??

Example (Hex) 01 03 C8 | MIN/MAX | Values | with 100 | Word | ($64) ??

IM145-U v5.8

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?? QUERY D (presetting the instrument to send the following RESPONSE D ten groups of MIN/MAX stored data. It’s necessary to archieve the following value) Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo 93 Number Of Word Hi 00 Number Of Word Lo 01 Byte Count 02 Delete first ten groups of MIN/MAX stored Hi 00 Delete first ten groups of MIN/MAX stored Lo 01 Error Check (LRC or CRC) ?? ??


Example (Hex) 01 10 1A 93 00 01 ?? ??

QUERY E (reading of the eleventh group of MIN/MAX RESPONSE E stored data in the RAM of the instrument ANR) Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Error Check (LRC or CRC)

Example (Hex) 01 03 1B 47 00 64 C8 ?? ?? ??

Field Name Slave Address Function Code Byte Count : : 1st group of MIN/MAX : : Error Check (LRC or CRC)

Example (Hex) 01 03 C8 | MIN/MAX | Values | with 100 | Word |($64) ??

SETUP THE 15’ HARMONICS STORING (Function Code $ 10) QUERY Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Byte Count Data stored in RAM Hi Data stored in RAM Lo Error Check (LRC or CRC)

RESPONSE Example (Hex) 01 10 1A 91 00 01 02 00 04 ?? ??



instruction manual

Example (Hex) 01 10 1A 91 00 01 ?? ??

IM145-U v5.8

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15’HARMONICS VALUES STORED IN RAM TRANSFER (Funct.Code $03 & $10) QUERY A (reading the value of voltage V harmonics stored in the RAM of the instrument ANR) Field Name Slave Address Function Code Starting Address Hi Starting Address Lo Number Of Word Hi Number Of Word Lo Error Check (LRC or CRC)

RESPONSE A (if the questioned ANR has no value stored in memory) Example (Hex) 01 03 16 (IEEE=26) 60 (IEEE=60) 00 69 ?? ??

Field Name Slave Address Function Code Error Code Error Check (LRC or CRC)

Example (Hex) 01 83 09 ??

RESPONSE A (if the questioned ANR has stored more then one 15’ harmonics) Field Name Example (Hex) Slave Address 01 Function Code 03 Byte Count D2 Logical number Hi 00 Logical number Lo 01 Year Hi 00 Year Lo 5F = 96 Mounth Hi 00 Mounth Lo 08 = 08 Day Hi 00 Day Lo 1A = 26 1st Voltage harmonic L1 phase Hi 00 1st Voltage harmonic L1 phase Lo 05 = 05 : | other 24 : | values : 15’harmonics stored value | with 4 : | word for : | each or (for IEEE) : | other 49 :15’ harmonics stored value | values with : | 2 word : | for each Error Check (LRC or CRC) ?? ??

QUERY B (Erasing from the instrument the value just read.It’s necessary to archieve the following value)

RESPONSE B

Field Name Example (Hex) Slave Address 01 Function Code 10 Starting Address Hi 1A Starting Address Lo 94 Number Of Word Hi 00 Number Of Word Lo 01 Byte Count 02 Delete first 15’ harmonics value stored Hi 00 Delete first 15’ harmonics value stored Lo 01 Error Check (LRC or CRC) ?? ??



instruction manual

IM145-U v5.8

Example (Hex) 01 10 1A 94 00 01 ?? ??

pag. 64 / 65

2.9)

TROUBLESHOOTING

If response from ANR doesn’t happen: - check connection from ANR and RS232/RS485 converter ; - check if data outgoing from the RS232 serial port of the PC come in the RS232/485 converter - try to increase the wait time for response ( 50 to 100mS is good); - check if the transmitted data stream is EXACTLY as in example, monitoring the data on the RS485 serial line with a terminal ( eg. Hyperterminal or other emulator); - if the RS232/485 converter is not our model CUS, be sure the turnaround-time is set in range 1 to 2 mS 2.10) NOTES

ABB SACE S.p.A. Apparecchi Modulari Viale dell’ industria, 18 20010 Vittuone (MI) – Italy Tel.: 02.9034.1 – Telefax: 02.9034.7609 http://bol.it.abb.com


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ANR96 Modbus RTU Protocol - Abb

ANR96 Modbus RTU Protocol - Abb

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