Standard Dataset
Standard Dataset
Description
The standard dataset contains the most useful information of each IMU module in one convenient table. The standard dataset is available in the registers 32000 to 32341. It can be read with three read requests.
Each IMU module updates the values in the dataset registers on a regular basis.
The response time of requests to standard dataset registers is shorter than the response time of requests to device registers. Therefore, it is recommended to read the standard dataset registers instead of device registers, to improve the overall performance of the system Modbus Programming Recommendations.
The standard dataset can be used with:
-
the IFE Ethernet interface for one circuit breaker
-
the IFE Ethernet switchboard server
-
the IFM Modbus-SL interface for one circuit breaker
Modbus Registers
Table of Standard Dataset Common Registers
The main information needed for remote supervision of a PowerPacT H-, J-, L-, P-, or R-frame, or MasterPacT NT/NW circuit breaker is contained in the table of common registers starting at register 32000.
One Modbus read request is limited to 125 registers maximum. Three Modbus read requests are necessary to read the entire table.
It contains the following information:
-
Circuit breaker status
-
Tripping causes
-
Real-time values of main measurements: current, voltage, power, and energy
The content of this table of registers is detailed in Standard Dataset Common Registers.
Use of these common registers is highly recommended to optimize response times and simplify the use of data.
Table Format
Register tables have the following columns:
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
-
Address: a 16-bit register address in hexadecimal. The address is the data used in the Modbus frame.
-
Register: a 16-bit register number in decimal (register = address + 1).
-
RW: register read-write status
-
R: the register can be read by using Modbus functions
-
W: the register can be written by using Modbus functions
-
RW: the register can be read and written by using Modbus functions
-
RC: the register can be read by using the command interface
-
WC: the register can be written by using the command interface
-
-
Unit: the unit the information is expressed in.
-
Type: the encoding data type (see data type description below).
-
Range: the permitted values for this variable, usually a subset of what the format allows.
-
A/E: types of PowerPacT H-, J-, and L-frame MicroLogic trip unit for which the register is available.
-
Type A (Ammeter): current measurements
-
Type E (Energy): current, voltage, power, and energy measurements
-
-
A/E/P/H: types of MasterPacT NT/NW and PowerPacT P- or R-frame MicroLogic trip unit for which the register is available.
-
Type A (Ammeter): current measurements
-
Type E (Energy): current, voltage, power, and energy measurements
-
Type P (Power): current, voltage, power, energy measurements, and advanced protection
-
Type H (Harmonics): current, voltage, power, energy, energy quality measurements, and advanced protection
-
-
X: register available in the MicroLogic X control unit for MasterPacT MTZ circuit breakers.
-
Description: provides information about the register and restrictions that apply.
Data Types
|
Data Types |
Description |
Range |
|---|---|---|
|
INT16U |
16-bit unsigned integer |
0 to 65535 |
|
INT64 |
64-bit signed integer |
- 9 223 372 036 854 775 808 to + 9 223 372 036 854 775 807 |
|
INT64U |
64-bit unsigned integer |
0 to 18 446 744 073 709 600 000 |
|
FLOAT32 |
32-bit signed integer with a floating point |
2-126 (1.0) to 2127 (2 - 2-23) |
Big-Endian Format
INT64 and INT64U variables are stored in big-endian format: the most significant register is transmitted first and the least significant register is transmitted at last place.
INT64 and INT64U variables are made of INT16U variables.
The formulas to calculate the decimal value of these variables are:
-
INT64: (0-bit63)x263 + bit62x262 + bit61x261 + ...bit1x21 + bit0x20
-
INT64U: bit63x263 + bit62x262 + bit61x261 + ...bit1x21 + bit0x20
Example:
The total active energy in the standard dataset is an INT64 variable coded in registers 32096 to 32099.
If the values in the registers are:
-
register 32096 = 0
-
register 32097 = 0
-
register 32098 = 70 (0x0046) 0x0017 or 23
-
register 32099 = 2105 (0x0839) 0x9692 or 38546 as INT16U variable and -26990 as INT16 variable (use the INT16U value to calculate the value of the total active energy).
Then the total active energy is equal to 0x248 + 0x232 + 23x216 + 38546x20 = 1545874 Wh.
Data Type: FLOAT32
Data type FLOAT32 is represented in the single precision IEEE 754 (IEEE standard for floating-point arithmetic). A value N is calculated as indicated below:
N = (-1)S x 2E-127 x (1+M)
|
Coefficient |
Stands for |
Description |
Number of Bits |
|---|---|---|---|
|
S |
Sign |
Defines the sign of the value: 0 = positive 1 = negative |
1 bit |
|
E |
Exponent |
Excess 127 binary integer added. When 0 < E < 255, the actual exponent is: e = E - 127. |
8 bits |
|
M |
Mantissa |
Magnitude, normalized binary significant |
23 bits |
Example:
0 = 0 00000000 00000000000000000000000
-1.5 = 1 01111111 10000000000000000000000
with:
-
S = 1
-
E = 01111111 = 127
-
M = 10000000000000000000000 = 1x2-1 + 0x2-2 +...+ 0x2-23 = 0.5
-
N = (-1) x 20 x (1+0.5) = -1.5
Quality of Bits in Registers
The quality of each bit of a register coded as INT16U data type as an enumeration of bits can be indicated in the register preceding the register.
Example:
The quality of each bit of the register 32001, circuit breaker status, is given in the preceding register, 32000.
The quality of the data corresponding to the bit 0 of register 32001, OF status indication contact, is given in the bit 0 of register 32000:
-
bit 0 of register 32000 = quality of OF status indication
-
bit 0 of register 32001 = OF status indication contact
|
If |
Then |
|---|---|
|
If bit 0 of register 32000 = 1 AND bit 0 of register 32001 = 0 |
The OF contact indicates that the device is open |
|
If bit 0 of register 32000 = 1 AND bit 0 of register 32001 = 1 |
The OF contact indicates that the device is closed |
|
If bit 0 of register 32000 = 0 |
The OF contact indication is invalid |
Readout Examples
Readout Example of a Modbus Register
The table below shows how to read the RMS current on phase A (IA) in registers 32028 and 32029 (coded in FLOAT32).
-
The address of register 32028 equals 32028 - 1 = 32027 = 0x7D1B.
-
The Modbus address of the Modbus slave is 255 = 0xFF.
|
Request from the Master |
Response from the Slave |
||
|---|---|---|---|
|
Field Name |
Example |
Field Name |
Example |
|
Modbus slave address |
0xFF |
Modbus slave address |
0xFF |
|
Function code |
0x03 |
Function code |
0x03 |
|
Address of first register to be read (MSB) |
0x7D |
Data length in bytes |
0x04 |
|
Address of first register to be read (LSB) |
0x1B |
Value read at address 0x7D1B (register 32028) (MSB) |
0x44 |
|
Number of registers (MSB) |
0x00 |
Value read at address 0x7D1B (register 32028) (LSB) |
0x0A |
|
Number of registers (LSB) |
0x02 |
Value read at address 0x7D1C (register 32029) (MSB) |
0xC0 |
|
CRC (MSB) |
0xXX |
Value read at address 0x7D1C (register 32029) (LSB) |
0x00 |
|
CRC (LSB) |
0xXX |
CRC (MSB) |
0xXX |
|
- |
- |
CRC (LSB) |
0xXX |
The converted value of the FLOAT32 registers 32028 and 32029 is 555.
The RMS current on phase A (IA) is thus 555 A.
Readout Example of the Table of Standard Dataset Common Registers
Since there are more than 125 registers in the standard dataset, at least three Modbus read requests are needed to read the entire table.
Request to read registers 32000 to 32123:
-
The address of register 32000 is 0x7CFF.
-
The length is 124 registers = 0x7C.
-
The number of bytes is 124 x 2 = 248 bytes = 0xF8.
-
The Modbus address of the slave is 255 = 0xFF.
Request to read registers 32124 to 32241:
-
The address of register 32124 is 0x7D7B.
-
The length is 118 registers = 0x76.
-
The number of bytes is 118 x 2 = 236 bytes = 0xEC.
-
The Modbus address of the slave is 255 = 0xFF.
Request to read registers 32340 to 32435:
-
The address of register 32340 is 0x7E53.
-
The length is 96 registers = 0x60.
-
The number of bytes is 2 x 96 = 192 bytes = 0xC0.
-
The Modbus address of the slave is 255 = 0xFF.
|
Request from the Master |
Response from the Slave |
||
|---|---|---|---|
|
Field Name |
Example |
Field Name |
Example |
|
Modbus slave address |
0xFF |
Modbus slave address |
0xFF |
|
Function code |
0x03 |
Function code |
0x03 |
|
Address of the first register to be read (MSB) |
0x7C |
Data length in bytes |
0x8F |
|
Address of the first register to be read (LSB) |
0xFF |
Value of register 32000 (MSB) |
0xXX |
|
Number of registers (MSB) |
0x00 |
Value of register 32000 (LSB) |
0xXX |
|
Number of registers (LSB) |
0x7C |
Value of register 32001 (MSB) |
0xXX |
|
CRC (MSB) |
0xXX |
Value of register 32001 (LSB) |
0xXX |
|
CRC (LSB) |
0xXX |
– |
0xXX |
|
– |
– |
– |
0xXX |
|
– |
– |
Value of register 32123 (MSB) |
0xXX |
|
– |
– |
Value of register 32123 (LSB) |
0xXX |
|
– |
– |
CRC (MSB) |
0xXX |
|
– |
– |
CRC (LSB) |
0xXX |
Standard Dataset Common Registers
Circuit Breaker Status Register
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Bit |
Description |
|---|---|---|---|---|---|---|---|---|---|---|
|
0x7CFF |
32000 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
Quality of each bit of register 32001:
|
|
0x7D00 |
32001 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
Circuit breaker status register |
|
A/E |
A/E/P/H |
X |
0 |
OF status indication contact
|
||||||
|
A/E |
A/E/P/H |
X |
1 |
SD trip indication contact
Bit always equal to 0 for MasterPacT and PowerPacT P- and R-frame circuit breakers with motor operator. |
||||||
|
A/E |
A/E/P/H |
X |
2 |
SDE fault trip indication contact
|
||||||
|
– |
A/E/P/H |
X |
3 |
CH spring charged contact (only with MasterPacT)
Bit always equal to 0 for MasterPacT and PowerPacT P- and R-frame circuit breakers with motor operator. |
||||||
|
– |
– |
– |
4 |
Reserved |
||||||
|
– |
A/E/P/H |
X |
5 |
PF ready to close contact (only with MasterPacT)
Bit always equal to 0 for MasterPacT and PowerPacT P- and R-frame circuit breakers with motor operator. |
||||||
|
– |
– |
– |
6–14 |
Reserved |
||||||
|
A/E |
A/E/P/H |
– |
15 |
Data availability If this bit is set at 1, all other bits of the register are not significant. |
IO Status Registers
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Bit |
Description |
|---|---|---|---|---|---|---|---|---|---|---|
|
0x7D01 |
32002 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
Quality of each bit of register 32003:
|
|
0x7D02 |
32003 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
IO1 module and M2C status |
|
A/E |
A/E/P/H |
X |
0 |
Digital input 1 status:
|
||||||
|
A/E |
A/E/P/H |
X |
1 |
Digital input 2 status:
|
||||||
|
A/E |
A/E/P/H |
X |
2 |
Digital input 3 status:
|
||||||
|
A/E |
A/E/P/H |
X |
3 |
Digital input 4 status:
|
||||||
|
A/E |
A/E/P/H |
X |
4 |
Digital input 5 status:
|
||||||
|
A/E |
A/E/P/H |
X |
5 |
Digital input 6 status:
|
||||||
|
A/E |
A/E/P/H |
X |
6 |
Digital output 1 status:
|
||||||
|
A/E |
A/E/P/H |
X |
7 |
Digital output 2 status:
|
||||||
|
A/E |
A/E/P/H |
X |
8 |
Digital output 3 status:
|
||||||
|
– |
– |
X |
9 |
Digital M2C output 1 status:
|
||||||
|
– |
– |
X |
10 |
Digital M2C output 2 status:
|
||||||
|
– |
– |
– |
11–14 |
Reserved |
||||||
|
A/E |
A/E/P/H |
– |
15 |
Data availability If this bit is set at 1, all other bits of the register are not significant. |
||||||
|
0x7D03 |
32004 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
Quality of each bit of register 32005:
|
|
0x7D04 |
32005 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
IO2 module status |
|
0 |
Digital input 1 status:
|
|||||||||
|
1 |
Digital input 2 status:
|
|||||||||
|
2 |
Digital input 3 status:
|
|||||||||
|
3 |
Digital input 4 status:
|
|||||||||
|
4 |
Digital input 5 status:
|
|||||||||
|
5 |
Digital input 6 status:
|
|||||||||
|
6 |
Digital output 1 status:
|
|||||||||
|
7 |
Digital output 2 status:
|
|||||||||
|
8 |
Digital output 3 status:
|
|||||||||
|
– |
– |
– |
9–14 |
Reserved |
||||||
|
A/E |
A/E/P/H |
– |
15 |
Data availability If this bit is set at 1, all other bits of the register are not significant. |
Tripping Cause
The tripping cause register provides information about the cause of the trip for the standard protection functions. When a tripping cause bit is at 1 in the tripping cause register, it indicates that a trip has occurred and has not been reset.
-
For MicroLogic A/E trip units for PowerPacT H-, J-, and L-Frame circuit breakers, the tripping cause bit is reset by pressing the key OK (keypad of the MicroLogic A/E trip unit) twice (validation and confirmation).
-
For MicroLogic A/E/P/H trip units for MasterPacT NT/NW and PowerPacT P- and R-Frame circuit breakers, the tripping cause bit is reset as soon as the circuit breaker is closed again.
-
For MicroLogic X control units for MasterPacT MTZ circuit breakers, the tripping cause bit is reset by pressing the test/reset button (located beside the trip cause LEDs on the MicroLogic X control unit). Press and hold the button for 3 to 15 seconds to reset all the trip causes.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Bit |
Description |
|---|---|---|---|---|---|---|---|---|---|---|
|
0x7D05 |
32006 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
– |
– |
Quality of each bit of register 32007:
|
|
0x7D06 |
32007 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
Tripping cause for the standard protection functions |
|
|
A/E |
A/E/P/H |
X |
0 |
Long-time protection Ir |
||||||
|
A/E |
A/E/P/H |
X |
1 |
Short-time protection Isd |
||||||
|
A/E |
A/E/P/H |
X |
2 |
Instantaneous protection Ii |
||||||
|
A/E |
A/E/P/H |
X |
3 |
Ground-fault protection Ig |
||||||
|
E |
A/P/H |
X |
4 |
Earth-leakage protection IΔn |
||||||
|
A/E |
A/E/P/H |
X |
5 |
Integrated instantaneous protection (SELLIM and DIN/DINF) |
||||||
|
A/E |
– |
X |
6 |
Internal failure (STOP) |
||||||
|
– |
A/E |
– |
Other protections |
|||||||
|
– |
P/H |
– |
Internal failure (temperature) |
|||||||
|
– |
A/E/P/H |
– |
7 |
Internal failure (overvoltage) |
||||||
|
– |
P/H |
X |
8 |
Other protection (see register 32009) |
||||||
|
– |
– |
– |
9 |
Reserved |
||||||
|
E |
– |
– |
10 |
Unbalance motor protection |
||||||
|
E |
– |
– |
11 |
Jam motor protection |
||||||
|
E |
– |
– |
12 |
Underload motor protection |
||||||
|
E |
– |
– |
13 |
Long-start motor protection |
||||||
|
A/E |
– |
– |
14 |
Reflex tripping protection |
||||||
|
A/E |
A/E/P/H |
– |
15 |
If this bit is at 1, bits 0 to 14 are not valid. |
||||||
|
0x7D07 |
32008 |
R |
– |
INT16U |
– |
– |
P/H |
– |
Quality of each bit of register 32009:
|
|
|
0x7D08 |
32009 |
R |
– |
INT16U |
– |
– |
P/H |
– |
– |
Tripping causes for the advanced protection functions |
|
– |
P/H |
– |
0 |
Current unbalance |
||||||
|
– |
P/H |
– |
1 |
Overcurrent on phase A |
||||||
|
– |
P/H |
– |
2 |
Overcurrent on phase B |
||||||
|
– |
P/H |
– |
3 |
Overcurrent on phase C |
||||||
|
– |
P/H |
– |
4 |
Overcurrent on Neutral |
||||||
|
– |
P/H |
X |
5 |
Undervoltage |
||||||
|
– |
P/H |
X |
6 |
Overvoltage |
||||||
|
– |
P/H |
– |
7 |
Voltage unbalance |
||||||
|
– |
P/H |
– |
8 |
Overpower |
||||||
|
– |
P/H |
X |
9 |
Reverse power |
||||||
|
– |
P/H |
X |
10 |
Underfrequency |
||||||
|
– |
P/H |
X |
11 |
Overfrequency |
||||||
|
– |
P/H |
– |
12 |
Phase rotation |
||||||
|
– |
P/H |
– |
13 |
Load shedding based on current |
||||||
|
– |
P/H |
– |
14 |
Load shedding based on power |
||||||
|
– |
P/H |
– |
15 |
If this bit is at 1, bits 0 to 14 are not valid. |
||||||
|
0x7D09– 0x7D0C |
32010– 32013 |
– |
– |
– |
– |
– |
– |
– |
– |
Reserved |
Overrun of the Protection Setpoints
The alarm setpoint registers provide information about overrun of the standard and advanced protection setpoints. A bit is at 1 once a setpoint overrun has occurred, even if the time delay has not expired.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Bit |
Description |
|---|---|---|---|---|---|---|---|---|---|---|
|
0x7D0D |
32014 |
R |
– |
INT16U |
– |
A/E |
P/H |
– |
– |
Quality of each bit of register 32015:
|
|
0x7D0E |
32015 |
R |
– |
INT16U |
– |
A/E |
P/H |
– |
– |
Overrun of the standard protection setpoints |
|
A/E |
P/H |
– |
0 |
Long-time protection pick-up |
||||||
|
– |
– |
– |
1–14 |
Reserved |
||||||
|
A/E |
P/H |
– |
15 |
If this bit is at 1, bits 0 to 14 are not valid. |
||||||
|
0x7D0F |
32016 |
R |
– |
INT16U |
– |
A/E |
P/H |
– |
– |
Quality of each bit of register 32017:
|
|
0x7D10 |
32017 |
R |
– |
INT16U |
– |
A/E |
P/H |
– |
– |
Overrun of the advanced protection setpoints |
|
– |
P/H |
– |
0 |
Current unbalance |
||||||
|
– |
P/H |
– |
1 |
Maximum current on phase A |
||||||
|
– |
P/H |
– |
2 |
Maximum current on phase B |
||||||
|
– |
P/H |
– |
3 |
Maximum current on phase C |
||||||
|
– |
P/H |
– |
4 |
Maximum current on the neutral |
||||||
|
– |
P/H |
– |
5 |
Minimum voltage |
||||||
|
– |
P/H |
– |
6 |
Maximum voltage |
||||||
|
– |
P/H |
– |
7 |
Voltage unbalance |
||||||
|
– |
P/H |
– |
8 |
Maximum power |
||||||
|
– |
P/H |
– |
9 |
Reverse power |
||||||
|
– |
P/H |
– |
10 |
Minimum frequency |
||||||
|
– |
P/H |
– |
11 |
Maximum frequency |
||||||
|
– |
P/H |
– |
12 |
Phase rotation |
||||||
|
– |
P/H |
– |
13 |
Load shedding based on the current |
||||||
|
– |
P/H |
– |
14 |
Load shedding based on the power |
||||||
|
– |
P/H |
– |
15 |
If this bit is at 1, bits 0 to 14 are not valid. |
||||||
|
0x7D11 |
32018 |
R |
– |
INT16U |
– |
– |
P/H |
– |
– |
Quality of each bit of register 32019:
|
|
0x7D12 |
32019 |
R |
– |
INT16U |
– |
– |
P/H |
– |
– |
Advanced protection settings extended |
|
– |
P/H |
– |
0 |
Ground-fault alarm |
||||||
|
E |
P/H |
– |
1 |
Earth-leakage alarm |
||||||
|
– |
– |
– |
2–14 |
Reserved |
||||||
|
– |
P/H |
– |
15 |
If this bit is at 1, bits 0 to 14 are not valid. |
Alarms
The alarm register provides information about the pre-alarms and the user-defined alarms. A bit is set to 1 once an alarm is active.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Bit |
Description |
|---|---|---|---|---|---|---|---|---|---|---|
|
0x7D13 |
32020 |
R |
– |
INT16U |
– |
A/E |
– |
– |
– |
Quality of each bit of register 32021:
|
|
0x7D14 |
32021 |
R |
– |
INT16U |
– |
A/E |
– |
– |
– |
Pre-alarm extended register |
|
A/E |
– |
X |
0 |
Long-time protection time pre-alarm (PAL Ir) |
||||||
|
E |
– |
– |
1 |
Earth-leakage protection pre-alarm (PAL IΔn) |
||||||
|
– |
– |
X |
Earth-leakage alarm(1) |
|||||||
|
A/E |
– |
– |
2 |
Ground-fault protection pre-alarm (PAL Ig) |
||||||
|
– |
– |
X |
Ground-fault alarm(2) |
|||||||
|
– |
– |
– |
3–14 |
Reserved |
||||||
|
A/E |
– |
– |
15 |
If this bit is at 1, bits 0 to 14 are not valid. |
||||||
|
0x7D15 |
32022 |
R |
– |
INT16U |
– |
A/E |
– |
– |
– |
Quality of each bit of register 32023:
|
|
0x7D16 |
32023 |
R |
– |
INT16U |
– |
A/E |
– |
– |
– |
Register of user-defined alarms |
|
A/E |
– |
– |
0 |
User-defined alarm 201 |
||||||
|
A/E |
– |
– |
1 |
User-defined alarm 202 |
||||||
|
A/E |
– |
– |
2 |
User-defined alarm 203 |
||||||
|
A/E |
– |
– |
3 |
User-defined alarm 204 |
||||||
|
A/E |
– |
– |
4 |
User-defined alarm 205 |
||||||
|
A/E |
– |
– |
5 |
User-defined alarm 206 |
||||||
|
A/E |
– |
– |
6 |
User-defined alarm 207 |
||||||
|
A/E |
– |
– |
7 |
User-defined alarm 208 |
||||||
|
A/E |
– |
– |
8 |
User-defined alarm 209 |
||||||
|
A/E |
– |
– |
9 |
User-defined alarm 210 |
||||||
|
– |
– |
– |
10–14 |
Reserved |
||||||
|
A/E |
– |
– |
15 |
If this bit is at 1, bits 0 to 14 are not valid. |
||||||
|
0x7D17–0x7D1A |
32024–32027 |
– |
– |
– |
– |
– |
– |
– |
– |
Reserved |
|
(1) Value available on MicroLogic 7.0 X control unit only when the Digital Module ANSI 51N/51G Ground-fault alarm is installed. (2) Value available on MicroLogic 2.0 X, 3.0 X, 5.0 X, and 6.0 X control units only when the Digital Module ANSI 51N/51G Ground-fault alarm is installed. |
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Current
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D1B–0x7D1C |
32028–32029 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
RMS current on phase A |
|
0x7D1D–0x7D1E |
32030–32031 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
RMS current on phase B |
|
0x7D1F–0x7D20 |
32032–32033 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
RMS current on phase C |
|
0x7D21–0x7D22 |
32034–32035 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
RMS current on the neutral(1) |
|
0x7D23–0x7D24 |
32036–32037 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
Maximum of RMS current of phases A, B, C and N (most loaded phase) (3) |
|
0x7D25–0x7D26 |
32038–32039 |
R |
– |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
Current ratio on ground (Ig setting ratio) |
|
0x7D27–0x7D28 |
32040–32041 |
R |
– |
FLOAT32 |
– |
E |
A/P/H |
X |
Current ratio on earth-leakage (IΔn setting ratio) (2) |
|
(1) Value available when system type register returns 30 or 41. (2) Value available with MicroLogic 7.0 X. (3) Value reset with the reset minimum/maximum command. |
|||||||||
Maximum Current Values
Maximum current values can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D29–0x7D2A |
32042–32043 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
Maximum RMS current on phase A |
|
0x7D2B–0x7D2C |
32044–32045 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
Maximum RMS current on phase B |
|
0x7D2D–0x7D2E |
32046–32047 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
Maximum RMS current on phase C |
|
0x7D2F–0x7D30 |
32048–32049 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
Maximum RMS current on the neutral(1) |
|
0x7D31–0x7D32 |
32050–32051 |
R |
A |
FLOAT32 |
– |
A/E |
A/E/P/H |
X |
This is the highest (i.e. maximum) maximum current value since this measurement was last reset. The measurement looks at all 3 currents, MaxIA, MaxIB, MaxIC and MaxIN and keeps track of the highest value of any of them over time. |
|
0x7D33–0x7D36 |
32052–32055 |
– |
– |
– |
– |
– |
– |
– |
Reserved |
|
(1) Value available when system type register returns 30 or 41. |
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Voltage
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D37–0x7D38 |
32056–32057 |
R |
V |
FLOAT32 |
41.6–2250 |
E |
E/P/H |
X |
RMS phase-to-phase voltage VAB |
|
0x7D39–0x7D3A |
32058–32059 |
R |
V |
FLOAT32 |
41.6–2250 |
E |
E/P/H |
X |
RMS phase-to-phase voltage VBC |
|
0x7D3B–0x7D3C |
32060–32061 |
R |
V |
FLOAT32 |
41.6–2250 |
E |
E/P/H |
X |
RMS phase-to-phase voltage VCA |
|
0x7D3D–0x7D3E |
32062–32063 |
R |
V |
FLOAT32 |
24-1500 |
E |
E/P/H |
X |
RMS phase-to-neutral voltage VAN(1) |
|
0x7D3F–0x7D40 |
32064–32065 |
R |
V |
FLOAT32 |
24-1500 |
E |
E/P/H |
X |
RMS phase-to-neutral voltage VBN(1) |
|
0x7D41–0x7D42 |
32066–32067 |
R |
V |
FLOAT32 |
24-1500 |
E |
E/P/H |
X |
RMS phase-to-neutral voltage VCN(1) |
|
(1) Value available when system type register returns 40 or 41. |
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Frequency
When the MicroLogic trip unit cannot calculate the frequency, it returns Not applicable = 0xFFC00000.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D43–0x7D44 |
32068–32069 |
R |
Hz |
FLOAT32 |
40.0–70.0 |
E |
P/H |
X |
Frequency |
|
0x7D45–0x7D46 |
32070–32071 |
R |
Hz |
FLOAT32 |
40.0–70.0 |
E |
P/H |
X |
Maximum frequency (1) |
|
(1) This value can be reset with the reset minimum/maximum command. |
|||||||||
Power
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D47–0x7D48 |
32072–32073 |
R |
W |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Active power on phase A(1) (2) |
|
0x7D49–0x7D4A |
32074–32075 |
R |
W |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Active power on phase B(1) (2) |
|
0x7D4B–0x7D4C |
32076–32077 |
R |
W |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Active power on phase C (1) (2) |
|
0x7D4D–0x7D4E |
32078–32079 |
R |
W |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Total active power(2) |
|
0x7D4F–0x7D50 |
32080–32081 |
R |
VAr |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Reactive power on phase A(1) (2) |
|
0x7D51–0x7D52 |
32082–32083 |
R |
VAr |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Reactive power on phase B(1) (2) |
|
0x7D53–0x7D54 |
32084–32085 |
R |
VAr |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Reactive power on phase C(1) (2) |
|
0x7D55–0x7D56 |
32086–32087 |
R |
VAr |
FLOAT32 |
-16000000–16000000 |
E |
E/P/H |
X |
Total reactive power(2) |
|
0x7D57–0x7D58 |
32088–32089 |
R |
VA |
FLOAT32 |
0–16000000 |
E |
E/P/H |
X |
Apparent power on phase A(1) |
|
0x7D59–0x7D5A |
32090–32091 |
R |
VA |
FLOAT32 |
0–16000000 |
E |
E/P/H |
X |
Apparent power on phase B(1) |
|
0x7D5B–0x7D5C |
32092–32093 |
R |
VA |
FLOAT32 |
0–16000000 |
E |
E/P/H |
X |
Apparent power on phase C(1) |
|
0x7D5D–0x7D5E |
32094–32095 |
R |
VA |
FLOAT32 |
0–16000000 |
E |
E/P/H |
X |
Total apparent power |
|
(1) Value available when system type register returns 40 or 41. (2) The sign for the active and reactive power depends on the configuration of:
|
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Energy
Energy is stored in big-endian format: the most significant register is transmitted first.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D5F–0x7D62 |
32096–32099 |
R |
Wh |
INT64 |
– |
E |
E/P/H |
X |
Total active energy(2) |
|
0x7D63–0x7D66 |
32100–32103 |
R |
VARh |
INT64 |
– |
E |
E/P/H(1) |
X |
Total reactive energy(2) |
|
0x7D67–0x7D6A |
32104–32107 |
R |
Wh |
INT64U |
– |
E |
P/H |
X |
Total active energy delivered (into the load, counted positively)(2) |
|
0x7D6B–0x7D6E |
32108–32111 |
R |
Wh |
INT64U |
– |
E |
P/H |
X |
Total active energy received (out of the load, counted negatively)(2) |
|
0x7D6F–0x7D72 |
32112–32115 |
R |
VARh |
INT64U |
– |
E |
P/H |
X |
Total reactive energy delivered (into the load, counted positively)(2) |
|
0x7D73–0x7D76 |
32116–32119 |
R |
VARh |
INT64U |
– |
E |
P/H |
X |
Total reactive energy received (out of the load, counted negatively)(2) |
|
0x7D77–0x7D7A |
32120–32123 |
R |
VAh |
INT64U |
– |
E |
– |
X |
Total apparent energy(2) |
|
0x7D7B–0x7D7E |
32124–32127 |
R |
Wh |
INT64U |
– |
E |
– |
X |
Total cumulative active energy delivered (into the load, counted positively, not resettable) |
|
0x7D7F–0x7D82 |
32128–32131 |
R |
Wh |
INT64U |
– |
E |
– |
X |
Total cumulative active energy received (out of the load, counted negatively, not resettable) |
|
(1) This value is always positive with MasterPacT MicroLogic E trip unit. (2) Value reset with the reset energies command. |
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Average Values
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D83–0x7D84 |
32132–32133 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Average of 3-phase RMS currents |
|
0x7D85–0x7D86 |
32134–32135 |
R |
V |
FLOAT32 |
– |
– |
– |
X |
Average of 3 RMS phase-to-phase voltages: (VAB+VBC+VCA)/3 |
|
0x7D87–0x7D88 |
32136–32137 |
R |
V |
FLOAT32 |
– |
– |
– |
X |
Average of 3 RMS phase-to-neutral voltages: (VAN+VBN+VCN)/3(1) |
|
(1) Value available when system type register returns 40 or 41. |
|||||||||
Maximum Power Values
Maximum power values can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D89–0x7D8A |
32138–32139 |
R |
W |
FLOAT32 |
– |
– |
– |
X |
Maximum total active power |
|
0x7D8B–0x7D8C |
32140–32141 |
R |
VAr |
FLOAT32 |
– |
– |
– |
X |
Maximum total reactive power |
|
0x7D8D–0x7D8E |
32142–32143 |
R |
VA |
FLOAT32 |
– |
– |
– |
X |
Maximum total apparent power |
Maximum Average Values
Maximum average values can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D8F–0x7D90 |
32144–32145 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Maximum of average of 3-phase RMS currents |
|
0x7D91–0x7D92 |
32146–32147 |
R |
V |
FLOAT32 |
– |
– |
– |
X |
Maximum of average of 3 RMS phase-to-phase voltages |
|
0x7D93–0x7D94 |
32148–32149 |
R |
V |
FLOAT32 |
– |
– |
– |
X |
Maximum of average of 3 RMS phase-to-neutral voltages |
Ground and Earth-Leakage Current
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D95–0x7D96 |
32150–32151 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Ground-fault current |
|
0x7D97–0x7D98 |
32152–32153 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Earth-leakage current(1) |
|
0x7D99–0x7D9A |
32154–32155 |
– |
– |
– |
– |
– |
– |
– |
Reserved |
|
(1) Value available with MicroLogic 7 |
|||||||||
Current Demand Values
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7D9B–0x7D9C |
32156–32157 |
R |
A |
FLOAT32 |
– |
E |
E/P/H |
X |
Current demand value on phase A: IA Dmd |
|
0x7D9D–0x7D9E |
32158–32159 |
R |
A |
FLOAT32 |
– |
E |
E/P/H |
X |
Current demand value on phase B: IB Dmd |
|
0x7D9F–0x7DA0 |
32160–32161 |
R |
A |
FLOAT32 |
– |
E |
E/P/H |
X |
Current demand value on phase C: IC Dmd |
|
0x7DA1–0x7DA2 |
32162–32163 |
R |
A |
FLOAT32 |
– |
E |
E/P/H |
X |
Current demand value on the neutral: IN Dmd(1) |
|
(1) Value available when system type register returns 30 or 41. |
|||||||||
Power Demand Values
-
For the block window, the demand value is updated at the end of the window.
-
For the sliding window,
-
If window duration is configured for less or equal to 15 minutes, the demand value is updated every 15 seconds
-
If window duration is configured for more than 15 minutes, the demand value is updated every 1 minute.
-
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DA3–0x7DA4 |
32164–32165 |
R |
W |
FLOAT32 |
– |
E |
E/P/H |
X |
Total active power demand: P Dmd |
|
0x7DA5–0x7DA6 |
32166–32167 |
R |
VAR |
FLOAT32 |
– |
E |
P/H |
X |
Total reactive power demand: Q Dmd |
|
0x7DA7–0x7DA8 |
32168–32169 |
R |
VA |
FLOAT32 |
– |
E |
P/H |
X |
Total apparent power demand: S Dmd |
Current Peak Demand Values
Current peak demand values can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DA9–0x7DAA |
32170–32171 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Current peak demand value on phase A: IA dmd max |
|
0x7DAB–0x7DAC |
32172–32173 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Current peak demand value on phase B: IB dmd max |
|
0x7DAD–0x7DAE |
32174–32175 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Current peak demand value on phase C: IC dmd max |
|
0x7DAF–0x7DB0 |
32176–32177 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Current peak demand value on the neutral: IN dmd max(1) |
|
(1) Value available when system type register returns 30 or 41. |
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Power Peak Demand Values
Power peak demand values are updated every 15 seconds. Power peak demand values can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DB1–0x7DB2 |
32178–32179 |
R |
W |
FLOAT32 |
– |
– |
– |
X |
Total active power peak demand: P dmd max |
|
0x7DB3–0x7DB4 |
32180–32181 |
R |
VAR |
FLOAT32 |
– |
– |
– |
X |
Total reactive power peak demand: Q dmd max |
|
0x7DB5–0x7DB6 |
32182–32183 |
R |
VA |
FLOAT32 |
– |
– |
– |
X |
Total apparent power peak demand: S dmd max |
Maximum Ground and Earth-Leakage Current Values
Maximum ground and earth-leakage current values can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DB7–0x7DB8 |
32184–32185 |
R |
A |
FLOAT32 |
– |
– |
– |
X |
Maximum ground-fault current |
|
0x7DB9–0x7DBA |
32186–32187 |
R |
V |
FLOAT32 |
– |
E |
– |
X |
Maximum earth-leakage current(1) |
|
0x7DBB–0x7DC0 |
32188–32193 |
– |
– |
– |
– |
– |
– |
– |
Reserved |
|
(1) Value available with MicroLogic 7. |
|||||||||
Maximum Voltage Values
Maximum voltage values can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DC1–0x7DC2 |
32194–32195 |
R |
V |
FLOAT32 |
41.6–2250 |
E |
E/P/H |
X |
Maximum RMS phase-to-phase voltage VAB |
|
0x7DC3–0x7DC4 |
32196–32197 |
R |
V |
FLOAT32 |
41.6–2250 |
E |
E/P/H |
X |
Maximum RMS phase-to-phase voltage VBC |
|
0x7DC5–0x7DC6 |
32198–32199 |
R |
V |
FLOAT32 |
41.6–2250 |
E |
E/P/H |
X |
Maximum RMS phase-to-phase voltage VCA |
|
0x7DC7–0x7DC8 |
32200–32201 |
R |
V |
FLOAT32 |
24–1500 |
E |
E/P/H |
X |
Maximum RMS phase-to-neutral voltage VAN(1) |
|
0x7DC9–0x7DCA |
32202–32203 |
R |
V |
FLOAT32 |
24–1500 |
E |
E/P/H |
X |
Maximum RMS phase-to-neutral voltage VBN(1) |
|
0x7DCB–0x7DCC |
32204–32205 |
R |
V |
FLOAT32 |
24–1500 |
E |
E/P/H |
X |
Maximum RMS phase-to-neutral voltage VCN(1) |
|
(1) Value available when system type register returns 40 or 41. |
|||||||||
Power Factor
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DCD–0x7DCE |
32206–32207 |
R |
– |
FLOAT32 |
– |
E |
E/P/H |
X |
Power factor on phase A(1) |
|
0x7DCF–0x7DD0 |
32208–32209 |
R |
– |
FLOAT32 |
– |
E |
E/P/H |
X |
Power factor on phase B(1) |
|
0x7DD1–0x7DD2 |
32210–32211 |
R |
– |
FLOAT32 |
– |
E |
E/P/H |
X |
Power factor on phase C(1) |
|
0x7DD3–0x7DD4 |
32212–32213 |
R |
– |
FLOAT32 |
– |
E |
E/P/H |
X |
Total power factor |
|
0x7DD5–0x7DD6 |
32214–32215 |
R |
– |
FLOAT32 |
– |
E |
H |
X |
Fundamental power factor on phase A (cosϕ1)(1)(2) |
|
0x7DD7–0x7DD8 |
32216–32217 |
R |
– |
FLOAT32 |
– |
E |
H |
X |
Fundamental power factor on phase B (cosϕ2)(1)(2) |
|
0x7DD9–0x7DDA |
32218–32219 |
R |
– |
FLOAT32 |
– |
E |
H |
X |
Fundamental power factor on phase C (cosϕ3)(1)(2) |
|
0x7DDB–0x7DDC |
32220–32221 |
R |
– |
FLOAT32 |
– |
E |
H |
X |
Total fundamental power factor(2) |
|
(1) Value available when system type register returns 40 or 41. (2) The sign for the fundamental power factor (cosϕ) depends on the configuration:
|
|||||||||
Total Harmonic Distortion (THD)
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DDD–0x7DDE |
32222–32223 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of phase-to phase voltage VAB compared to the fundamental |
|
0x7DDF–0x7DE0 |
32224–32225 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of phase-to phase voltage VBC compared to the fundamental |
|
0x7DE1–0x7DE2 |
32226–32227 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of phase-to phase voltage VCA compared to the fundamental |
|
0x7DE3–0x7DE4 |
32228–32229 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of phase-to-neutral voltage VAN compared to the fundamental (1) |
|
0x7DE5–0x7DE6 |
32230–32231 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of phase-to-neutral voltage VBN compared to the fundamental (1) |
|
0x7DE7–0x7DE8 |
32232–32233 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of phase-to-neutral voltage VCN compared to the fundamental (1) |
|
0x7DE9– 0x7DEA |
32234–32235 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of current on phase A compared to the fundamental |
|
0x7DEB–0x7DEC |
32236–32237 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of current on phase B compared to the fundamental |
|
0x7DED–0x7DEE |
32238–32239 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Total harmonic distortion (THD) of current on phase C compared to the fundamental |
|
0x7DEF– 0x7DF0 |
32240–32241 |
R |
– |
FLOAT32 |
0–2 |
E |
H |
X |
Average of 3-phase current Total harmonic distortions (THD) compared to the fundamental |
|
(1) Value available when system type register returns 40 or 41. |
|||||||||
Maximum Power Factor
Maximum power factor can be reset with the reset minimum/maximum command.
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Description |
|---|---|---|---|---|---|---|---|---|---|
|
0x7DF1–0x7DF2 |
32242–32243 |
R |
– |
FLOAT32 |
– |
– |
– |
X |
Maximum total power factor |
|
0x7DF3–0x7E52 |
32244–32339 |
– |
– |
– |
– |
– |
– |
– |
Reserved |
Inhibit Close Order
|
Address |
Register |
RW |
Unit |
Type |
Range |
A/E |
A/E/P/H |
X |
Bit |
Description |
|---|---|---|---|---|---|---|---|---|---|---|
|
0x7E53 |
32340 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
Quality of each bit of register 32341:
|
|
0x7E54 |
32341 |
R |
– |
INT16U |
– |
A/E |
A/E/P/H |
X |
– |
Inhibit close order status |
|
0 |
Close breaker inhibited by IO module
|
|||||||||
|
1 |
Close breaker inhibited by communication
|
|||||||||
|
– |
– |
– |
2–15 |
Reserved |
Note for UL project team (CEP, 11/03/2013 “Question for next release”): how registers related to “Vigi module” are settled: should they be “Reserved” for UL?