MuMGE144EN

7/24/2019 MuMGE144EN

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MGE 144 Power Meter

Operating Instructions

• Technical Data

• Electric Connections

• Keyboard Guide

• Communication Protocol Modbus RTU

• Dimensions

ABB Instrumentation

I1 = 125,0 [ k A]

I2 = 124,8 [ k A]

I3 = 122,7 [ k A]

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Index

1 Technical Data........................................................................................................................... 31.1 Input....................................................................................................................................... 31.2 Output .................................................................................................................................... 31.3 Bulk Storage........................................................................................................................... 31.4 Influence Magnitudes ............................................................................................................. 31.5 Additional Errors..................................................................................................................... 31.6 Electric Tests.......................................................................................................................... 31.7 Construction and mounting..................................................................................................... 31.8 Climatic conditions ................................................................................................................. 3

2 Electric Connections .................................................................................................................. 42.1 Auxiliary Power Supply........................................................................................................... 42.2 Voltage input signal................................................................................................................ 42.3 Current input signal ................................................................................................................ 4

2.4 Serial output RS 485............................................................................................................... 4

2.5 Serial output RS 232 .............................................................................................................. 42.6 Digital output .......................................................................................................................... 42.7 Analog output......................................................................................................................... 5

3 Keyboard Guide......................................................................................................................... 63.1 Menu Options......................................................................................................................... 63.2 Displays 1, 2, 3....................................................................................................................... 63.3 Configuration.......................................................................................................................... 6

3.3.1 Primary Current............................................................................................................... 73.3.2 Primary Voltage (Phase Voltage) .................................................................................... 73.3.3 Secondary Voltage (Phase Voltage)................................................................................ 73.3.4 Circuit Type..................................................................................................................... 73.3.5 Energy Range ................................................................................................................. 73.3.6 Pulse Output ................................................................................................................... 73.3.7 Baud Rate ....................................................................................................................... 7

3.3.8 MGE Address.................................................................................................................. 73.3.9 Reset............................................................................................................................... 73.3.10 Byte ............................................................................................................................. 7

4 Password................................................................................................................................... 85 Display of Maximum and Minimum Values................................................................................. 86 Exit ............................................................................................................................................ 87 Communication Protocol Modbus RTU .....................................................................................108 Special Functions .....................................................................................................................129 List of register ...........................................................................................................................1310 Configuration Registers of the Instrument .................................................................................1611 Bulk Storage.............................................................................................................................1712 Dimensional Drawing................................................................................................................18

This Operating Instruction is proper to MGE144 based on IBIS BE Software Version 00.60

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1 Technical Data1.1 Input Voltage Phase

63V127V220V

254V

Line110V220V380V

440V

Current 1A , 5A

Signal Limit U = 10…120%I = 10...120%

Power con-sumption

voltage input: ≤ 1mA.

current input: ≤ 0,2VA.

NominalFrequency

50; 60 Hz ±10% (other by consulting)

Overload Permanently: 1,5 U ; 2I short time:4U/1s;50I/1s maximum: 250A /1s

Auxiliarypower supply

85 … 265Vac90 … 300Vdcpower consumption ~ 6VA

1.2 OutputDigital output 5 outputs

4 outputs with alarm configurationfor any variable or pulse outputproportional to power and 1 faultsummary output. Pulse outputs (opencollector) 1...5000 pulses/h or duration:pulse width from 100 to 2000 ms(configurable)Maximum voltage 60Vcc.

Maximum current 20mA.

Analog output 4 analog outputs

0/4 …20mA RC ≤ 500 Ohm

0 …10V RC ≥100 kOhm

Interface Serial for interface RS232 or RS485Protocol Modbus RTU

1.3 Bulk Storage

Data are stored in a not volatile bulk storage, whichcan stay 48 hours of black out without loosing clocktime. The stored data are: month, day, hour, minute

and the preset measuring variables (memorizingcapacity of 12 variables at every 15 minutes, of thelast 40 days). The data are stored temporarilyoverwriting the last data. Any desired variable to bestored can be configured, as well as the measuringtime interval.Up to 20 variables can be configured and timeintervals from 5 up to 250 minutes.

1.4 Influence MagnitudesError limit 0,5%(normal),

0,25% (optional)Referenceconditions

Input: I = 10%...100% ;U = 10%...100%

Frequency: frated ±2%

Aux. powersupply:

Within range

Powerfactor:

cosine ϕ = 1 (activepower)

sine ϕ = 1 (reactive power)Ambienttemperature:

25°C ±2K

Heat up time 20 min. approx.

1.5 Additional ErrorsAdditional error above1,2I or 1,2U

≤ 0,2%

Linearity deviation ≤ 0,2% (included in error limit)

Temperature ≤ 0,2%/10 K; rated temperature25°C

Auxiliary power supply ≤ 0,05% within the tolerancerange admissible for the powersupply voltage

External magnetic fields ≤ 0,5% for field intensity of 0,4kA/m

1.6 Electric Tests

Test voltage 2,5kV/1 min - 60Hz between powersupply and remaining circuit0,5kV/1 min - 60Hz RS485, RS232,pulse output and analog output

1.7 Construction and mountingHousing Textured gray painted steel plateFixing By pairs of clamps Electricconnections

Voltage and current inputs terminals forring shaped cable shoesFor pulse and analog outputs, RS485 andauxiliary power supply terminals for pinshaped cable shoesFor RS232 output mini connector DIN6 onthe front of the instrument.

Weight ~ 1,5 kg

1.8 Climatic conditions

Operating temperature -20...+60°CFunctioning temperature -25...+70°CTransport and storagetemperature

-40...+80°C

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2 Electric Connections

Certify if voltages and currents to beconnected are compatible with theinstrument.

2.1 Auxiliary Power SupplyThe auxiliary power supply has to beconnected to the terminals 12, 13 e 14.Terminal 12 for ground.Terminals 13 and 14 for auxiliary powersupply.

2.2 Voltage input signalThe voltage signal input has to beconnected to the terminals 2, 5, 8, 11. Thevoltage input signal can be realized bymeans of a Potential Transformer ordirectly. The grounding of the secondaryPotential Transformer side is for protection;the grounded terminal is a suggestion andcan be modified. See figure 1

Terminal 2 phase L1Terminal 5 phase L2Terminal 8 phase L3Terminal 11 Neutral phase

2.3 Current input signalThe current signal input has to beconnected to the terminals 1, 3, 4, 6, 9. Thecurrent signal input can be realized bymeans of a Current Transformer or directly.The grounding of the secondary CurrentTransformer side is for protection; thegrounded terminal is a suggestion and canbe modified. See figure 1

Terminals 1 and 3 current of phase L1Terminals 4 and 6 current of phase L2Terminals 7 and 9 current of phase L3

2.4 Serial output RS 485The communication interface RS 485 can beconnected with a bus of up to 32 instruments,including the PC (Master). The connectionbetween the instruments can be realized bymeans of a pair of twisted wires or shieldedcable with a maximum length of maximum 1200m. The instruments are connected in parallelmode observing the signal polarity.

A termination resistor of 120 Ohms has to beconnected at the beginning and the end of theloop.

Terminal A (+)Terminal B (-)Terminal GND is for connection of cable

shield. When using a pair of twisted wires, thisterminal is not used. See figure 2.

Note: The serial output RS 485 will not functionwhen the cable of the local communication

RS 232 is connected to the instrument.

2.5 Serial output RS 232For this connection a special cable is available,which converts the TTL output signal in a signal

compatible with RS 232. The cable has at oneend a DIN6 mini connector which is plugged tothe instrument and a DB9 connector which isplugged to the PC; an adapter from DB9 toDB25 goes along with the cable, in case that thePC output is realized by a DB25.

Note. The RS 232 has priority over the RS 485output. That means, if the instrument is in

communication by means of the RS 485 and acable for local communication is beingconnected to the instrument, the instrumentpasses to the communication by means of the

RS 232.

2.6 Digital outputThe digital output is realized by means of opencollector.Terminals 32 (E), 33 (C) : Digital output 1

(when pulse output Active Energy Consumed)

Terminals 34 (E), 35 (C) : Digital output 2(when pulse output Active Energy Supplied)

Terminals 36 (E), 37 (C) : Digital output 3(when pulse output Reactive Energy Consumed)

Terminals 38 (E), 39 (C) : Digital output 4(when pulse output Reactive Energy Supplied)

Terminals 40 (E), 41 (C) : Fault summary output,

(When this output opens, it indicates fault)

Where : (E) emitter and (C) collector

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2.7 Analog outputTerminals 71 (-) e 72(+) : Analog output 1.Terminals 73 (-) e 74(+) : Analog output 2.Terminals 75 (-) e 76(+) : Analog output 3.Terminals 77 (-) e 78(+) : Analog output 4.

Figure 1 : Electric Connections

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3 Keyboard Guide(See diagrams 1 and 2)

Key Loop

Key ∆∆∆∆ (Advance)

Key ∇∇∇∇ (Return)

Key ∗∗∗∗ (Confirm)

3.1 Menu OptionsLocal Configuration disabled

Touching the key “” for the first timeenables the option of Configuration .

Touching the key “∆” advances successivelyto Configuration, Password, Exit,Configuration ...

Touching the key “∇” returns to theforegoing option.

Local Configuration enabledTouching the key “” for the first timeDisplay 1 is shown on the screen.

Touching the key “∆” advances successivelyto Display 2, Display 3, Configuration,Password, Exit, Configuration, Display 1...

Touching the key “∇” returns to theforegoing option.The instrument returns to the main menu incase of remaining inactive about 10seconds.

Touching the key “∗” activates the selectedoption.

3.2 Displays 1, 2, 3

Touching the key “∗”, when the localconfiguration is enabled, accesses theDisplays 1,2,3, in which the variable to beread can be selected by means of the keys

“∆” or “∇” .

Within the variable, the readout type can be

selected, touching the key “∗”, that means:

Current I1, I2 or I3Phase voltage Un1, Un 2 or Un 3Line voltage U12, U23 or U31Active power P1, 2, 3 or PtReactive power Q1, 2, 3 or QtCosine Phi Phi1, 2, 3 or Phit

Active Energy EPF : Exported EnergyEPC : Imported Energy

Reactive Energy EQF : Exported EnergyEQC : Imported Energy

FrequencyDemand of Current DI1, DI2, DI3,Demand of Power DPt, DQt, DSt.Loop 1 : Sync. - Man 2s 3s 5s 10s(The manual control is done by means of the

keys “∆” e “∇” in the display mode).Loop 2 : 1s 2s 3s 5s 10sDiagnostic TX RX

All these readouts are selected by touching the

keys “∆” e “∇” .

After selecting the desired readout, touch the

key “∗” to configure. The selected readouts willsubsequently appear on the screen.

3.3 ConfigurationThe configuration is only possible when enabled.In case that the configuration is not enabled, itcan be displayed but not modified.

When the local configuration is enabled, put thecursor on configuration and touch the key “∗”.The primary current range will appear on the

Display and the key “∆” permits to change the

range and the key “∇” permits to return to theforgoing range.By touching the key “” the Display returns tothe Main Menu (Begin).

Ranges to be configured:Primary CurrentPrimary VoltageSecondary VoltageCircuit TypeEnergy RangePulse OutputBaud RateInstrument AddressKWH=0 KVAR=0 - Reset the energies

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3.3.1 Primary CurrentWhen the local configuration is enabled,

touch the key “∗” and adjust the currentwith the key:

“∆” from 0 to 9 + . (Point)

“∇” from 10 to 9999

Touch the key “∗” and adjust the unity withthe key:

“∆” kA or A

“∇” to finalize

3.3.2 Primary Voltage (PhaseVoltage)

When the local configuration is enabled,

touch the key “∗” and adjust the voltagewith the key:


“∇” from 10 to 9999

Touch the key “∗” and adjust the unity withthe key:

“∆” kV or V

“∇” to finalize

3.3.3 Secondary Voltage (PhaseVoltage)

When the local configuration is enabled,

touch the key “∗” and adjust the voltagewith the key:

“∆” from 0 to 9 + . (Point)“∇” from 10 to 9999

“∗” to finalize

3.3.4 Circuit TypeWhen the local configuration is enabled,

touch the key “∗” and select the desiredcircuit type:

3N~ 3E3 ~2E3 ~1E1N~1E.

With the keys “∆” or “∇” circuit type selection ispossible. After selection of the circuit type touch

the key “∗” to finalize.

3.3.5 Energy RangeWhen the local configuration is enabled, touch

the key “∗” and select the energy rangebetween

999.999 kWh to 9999.99 GWh, using the keys “∆” ou

“∇”. After selection of the energy range touch the key

“∗” to finalize.

3.3.6 Pulse OutputWhen the local configuration is enabled, touch the

key “∗” and select the pulse rate with the key:“∆” from 0 to 9 + . (Point)

“∇” from 10 to 9999“∗” to finalize.

3.3.7 Baud RateWhen the local configuration is enabled, touch the

key “∗” and select the Baud Rate with the keys “∆” ou

“∇”:19200, 9600, 4800, 2400, 1200 or 600.

Touch the key “∗” to finalize.

3.3.8 MGE AddressWhen the local configuration is enabled, touch the

key “∗” and select the address of the instrument withthe key:


“∇” from 10 to 255“∗” to finalize.

3.3.9 ResetkWh=0 kvarh=0Touch the key “∗” to return to zero

Touch the key “∗”to finalize.

3.3.10 ByteByte Type used for the bus communication. When the local configuration is enabled, touch

the key “∗” and select the desired Byte Type:8,n,2 : Without parity 2 Stop Bits8,e,1: Even Parity 1 Stop Bit8,o,1: Odd Parity 1 Stop Bit8,n,1: Without parity 1 Stop Bit

With the keys “∆” or “∇” the byte type can be

selected. After selection of the byte type touch thekey “∗” to finalize.

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4 PasswordEnable local configuration.Entering the number 182 the localconfiguration can be enabled.Disable local configuration.To disable the configuration, enter any othernumber.Reset memory of maximum and minimumvalues.The number 5 resets the memories ofmaximum and minimum values.

5 Display of Maximum andMinimum Values

Touching the keys “∗” and “∆” the screendisplays the maximum values.

Touching the keys “∗” and “∇” the screen

displays the minimum values.

6 ExitTouching the key “∗” the instrument returns tothe display mode.

Diagram 1 : Parametrization

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Diagram 2 : Configuration

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7 Communication Protocol Modbus RTU

Byte Format for transmission. ( 8,n,2), (8,o,1), (8,e1), (8,n,1)(8,n,2) The Byte is composed by 1 Start bit , 8 data bits, no parity bit and 2 Stop bits

1 2 3 4 5 6 7 8 9 10 11

Start D0 D1 D2 D3 D4 D5 D6 D7 Stop Stop

(8,o,2) The Byte is composed by 1 Start bit , 8 data bits, odd parity bit and 1 Stop bit

1 2 3 4 5 6 7 8 9 10 11Start D0 D1 D2 D3 D4 D5 D6 D7 Parity Stop

(8,e,2) The Byte is composed by 1 Start bit , 8 data bits, even parity bit and 1 Stop bit

1 2 3 4 5 6 7 8 9 10 11Start D0 D1 D2 D3 D4 D5 D6 D7 Parity Stop

(8,n,1) The Byte is composed by 1 Start bit , 8 data bits, no parity bit and 1 Stop bit

1 2 3 4 5 6 7 8 9 11

Start D0 D1 D2 D3 D4 D5 D6 D7 Stop

Message Formation (Frame)

Pause Address Function Data CRC16 Pause

Function 03 Read RegisterQuestion

Address Function Start Register Number of registers CRC16

XX 03 H L H L L H

AnswerAddress Function N. Bytes Data CRC16

XX 03 H L H L L H

Function 04 Read RegisterQuestion

Address Function Start Register Number of registers CRC16

XX 04 H L H L L H

AnswerAddress Function N. Bytes Data CRC16

XX 04 H L H L L H

Function 06 preset registerQuestion

Address Function Register Number Data CRC16

XX 06 H L H L L HAnswer

Address Function Register Number Data CRC16

XX 06 H L H L L H

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Function 08 Loopback testQuestion

Address Function Diagnostic Code Data CRC16

XX 08 00 00 XX XX L H

Answer

Address Function Diagnostic Code Data CRC16XX 08 00 00 XX XX L H

Function 16 preset various registersQuestionAddress Function Start Register Nr. of registers Nr. of Bytes Data CRC16

XX 16 H L H L H L H L L H

AnswerAddress Function Register Number Nr. of registers CRC16

XX 06 H L H L L H

Error Code

Address Function Error Code CRC16

XX XX XX L H

Error Codes01 - Invalid Function02 - Invalid Address03 - Invalid Datum

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8 Special Functions

Function 65 01Reset energy metersQuestion

Address Function Function Status CRCL CRCHXX 65 01 01 XX XX

AnswerAddress Function Function Status CRCL CRCH

XX 65 01 00 XX XX

Note. The address 00 will reset all instruments on the bus and the instrument will not answer .

Function 65 02Reset maximum and minimum memories.Question

Address Function Function Status CRCL CRCH

XX 65 02 01 XX XX

Answer:Address Function Function Status CRCL CRCH

XX 65 02 00 XX XX

Note. The address 00 will reset all instruments on the bus and the instrument will not answer

Function 65 03 Read Bulk StorageQuestion

Address Function Function Start Register N. of registers CRC16XX 65 03 H L H L L H

AnswerAddress Function Function N. Bytes Data CRC16

XX 65 03 H L H L L H

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9 List of registerRegister Data Type Data Type Description

Actual Max Min

100 190 230 4000H = Nominal value Read Phase Voltage L1101 191 231 4000H = Nominal value Read Phase Voltage L2

102 192 232 4000H = Nominal value Read Phase Voltage L3

103 193 233 4000H = Nominal value Read Line Voltage 1 and 2



106 196 236 4000H = Nominal value Read Current I1



109 199 239 4000H = Nominal value Read Sum of current ( I1 + I2 + I3 )

110 200 240 4000H = Nominal value Read Active Power P1



113 203 243 4000H = Nominal value Read Active Power total PT

114 204 244 4000H = Nominal value Read Reactive Power Q1115 205 245 4000H = Nominal value Read Reactive Power Q2

116 206 246 4000H = Nominal value Read Reactive Power Q3

117 207 247 4000H = Nominal value Read Reactive Power Total QT

118 208 248 4000H = Nominal value Read Apparent Power S1



121 211 251 4000H = Nominal value Read Apparent Power Total ST

122 212 252 4000H = Nominal value Read Power Factor 1



125 215 255 4000H = Nominal value Read Power Factor Total

126 216 256 2000H = 50 Hz Read Frequency

127 1 = 1 MWh Read and Write Consumed Energy MWh *1

128 1 = 1 kWh Read and Write Consumed Energy kWh *1129 1 = 1 Wh Read and Write Consumed Energy Wh *1

130 1 = 1 Mvarh Read and Write Consumed Energy Mvarh *1

131 1 = 1 kvarh Read and Write Consumed Energy kvarh *1

132 1 = 1 varh Read and Write Consumed Energy varh *1

133 1 = 1 MWh Read and Write Supplied Energy MWh *1

134 1 = 1 kWh Read and Write Supplied Energy kWh *1

135 1 = 1 Wh Read and Write Supplied Energy Wh *1

136 1 = 1 Mvarh Read and Write Supplied Energy Mvarh *1

137 1 = 1 kvarh Read and Write Supplied Energy kvarh *1

138 1 = 1 varh Read and Write Supplied Energy varh *1

139 217 257 4000H = 360 Read Angle Phi 1

140 218 258 4000H = 360 Read Angle Phi 2

141 219 259 4000H = 360 Read Angle Phi 3

142 220 260 4000H = 360 Read Angle Phi t

143 221 261 4000H = Nominal value Read Current demand I1



146 224 264 4000H = Nominal value Read Active power demand

147 225 265 4000H = Nominal value Read Reactive power demand

148 226 266 4000H = Nominal value Read Apparent power demand

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Example of interpretation.

End current scale = 1000 A

Nominal value

Hexadecimal value 4000Decimal value 16384

Physical value 1000 A

Ex. Active Power P1Power = Phase Voltage X Current12700 [W] = 127 [V] X 100 [A]

Nominal value

Hexadecimal value 4000

Decimal value 16384

Physical value 12700 W

Ex. Total Power for three phase systemPower = Phase Voltage X Current X 338100 [W] = 127 [V] X 100 [A] X 3

Nominal value


Decimal value 16384

Physical value 38100 W

Ex. For Angle

Nominal value


Decimal value 16384

Physical value 360 GRAUS

Ex. For Angle

Value Value Value Value ValueHexadecimal value E000 F000 0 1000 2000

Decimal value -8192 -4096 0 4096 8192

Physival value -180 graus - 90 graus 0 graus 90 graus 180 graus

180º

-180º0º

90º

-P

-P

+P

+P

-Q

+Q

-Q

+Q

IND

CAP

CAP

IND

-90º

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Register value function of the energy rage.

1 - 999.999 kW , 9999.99 kW, 99999. 9 kW, 999999 kW127 1 = 1 MWh Read and Write Consumed Energy MWh

128 1 = 1 kWh Read and Write Consumed Energy kWh

129 1 = 1 Wh Read and Write Consumed Energy Wh

130 1 = 1 Mvarh Read and Write Consumed Energy Mvarh

131 1 = 1 kvarh Read and Write Consumed Energy kvarh

132 1 = 1 varh Read and Write Consumed Energy varh

133 1 = 1 MWh Read and Write Supplied Energy MWh

134 1 = 1 kWh Read and Write Supplied Energy kWh

135 1 = 1 Wh Read and Write Supplied Energy Wh

136 1 = 1 Mvarh Read and Write Supplied Energy Mvarh

137 1 = 1 kvarh Read and Write Supplied Energy kvarh

138 1 = 1 varh Read and Write Supplied Energy varh

2 - 9999.99 MW, 99999. 9 MW, 999999 MW

127 1 = 1 GWh Read and Write Consumed Energy GWh

128 1 = 1 MWh Read and Write Consumed Energy MWh

129 1 = 1 kWh Read and Write Consumed Energy kWh

130 1 = 1 Gvarh Read and Write Consumed Energy Gvarh


132 1 = 1 kvarh Read and Write Consumed Energy kvarh

133 1 = 1 GWh Read and Write Supplied Energy GWh


135 1 = 1 kWh Read and Write Supplied Energy kWh

136 1 = 1 Gvarh Read and Write Supplied Energy Gvarh

137 1 = 1 Mvarh Read and Write Supplied Energy Mvarh

138 1 = 1 kvarh Read and Write Supplied Energy kvarh

3 - 9999.99 GW

127 1 = 1 TWh Read and Write Consumed Energy TWh

128 1 = 1 GWh Read and Write Consumed Energy GWh

129 1 = 1 MWh Read and Write Consumed Energy MWh

130 1 = 1 Tvarh Read and Write Consumed Energy Tvarh

131 1 = 1 Gvarh Read and Write Consumed Energy Gvarh


133 1 = 1 TWh Read and Write Supplied Energy TWh

134 1 = 1 GWh Read and Write Supplied Energy GWh


136 1 = 1 Tvarh Read and Write Supplied Energy Tvarh

137 1 = 1 Gvarh Read and Write Supplied Energy Gvarh138 1 = 1 Mvarh Read and Write Supplied Energy Mvarh

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10 Configuration Registers of the InstrumentRegister Data Type Description

80 Integer 16 bits Value of primary or indication I

81 Integer 16 bits 0, 1, 2, 3 Number of decimal digits for I

82 Integer 16 bits 0(_), 3(k) Measuring Magnitude I83 Integer 16 bits Value of primary or indication U

84 Integer 16 bits 0, 1, 2, 3 Number of decimal digits for U

85 Integer 16 bits 0(_), 3(k) Measuring Magnitude U86 Integer 16 bits Value of primary or indication P

87 Integer 16 bits 0, 1, 2, 3 Number of decimal digits for P

88 Integer 16 bits 0(_), 3(k), 6(M) Measuring Magnitude P89 1(single phase), 3(three phase) Circuit Type

90 Number of Watchdog actuations

91 Number of Power Fail actuations92 Status of Power Fail

93 CRC Error94 00 signal bit; 01 compl. of 2 Word Format

95

9697 1, 2, 3, 4, 5, 6, 7 e 8 Energy Range

Range Register InterpretationCurrent Range = (Value of primary or indication I)/10 ^ (Number of decimal digits for I)Voltage Range = (Value of primary or indication U)/10 ^ (Number of decimal digits for U)

Example 1: Current Range of 250,0 A.

Register Hex. Value Decimal

Value

Description

80 09C4H 2500 Value of primary or indication I

81 0001H 1 Number of decimal digits for I

82 0000H 0 Measuring Magnitude I

Value of primary or indication I is equal to 2500Number of decimal digits for I is equal to 1Current Range = (2500)/10 ^ (1)Current Range = 250,0Measuring Magnitude I in A

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Example 2: Voltage Range of 13.80 kV

Register Hex. Value DecimalValue

Description

83 0564H 1380 Value of primary or indicatUon U

84 0001H 1 Number of decimal digits for U85 0003H 3 Measuring Magnitude U

Value of primary or indication U is equal to 1380Number of decimal digits for U is equal to 2Measuring Magnitude U is equal to 3Current Range = (2500)/10 ^ (2)Current Range = 13.80Measuring Magnitude U in kA

11 Bulk StorageRegister Hexadecimal Value

170 1 = 1 0 - 59 Seconds171 1 = 1 0 - 59 Minutes172 1 = 1 0 - 23 Hours173 1 = 1 1 - 31 Month Day174 1 = 1 1 -12 Month175 1 = 1 1 - 7 Week Day176 1 = 1 1900 - 2099 Year

182 1 = 1 Number of registers

183 1 = 1 Address of last register

270 Linked Variable

up to Linked Variable

290 Linked Variable

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12 Dimensional Drawing

Dimensions in mm

ABB Ltda.Av. Dos Autonomistas, 149606020-902 / Osasco / SP / BrasilT l 55 11 3688 8345 / 3688 8344

The Company’s policy is one of continuous productimprovement and the right is reserved to modify theinformation contained herein without notice

©ABB 2000 Printed in Brasil(05.01)

MuMGE00_60EN10.04

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MuMGE144EN