Schneider Electric PM5560 Modbus register map

Front panel mounted power and energy meter in a 96 x 96 mm case, with four digital inputs, two digital outputs, dual Ethernet ports and a serial port. It reports current, voltage, power, power factor, frequency, harmonic distortion, demand and energy, and works as a Modbus TCP to Modbus RTU gateway.

Want to test without the device? Modbus Poll can simulate this meter: PM5560 simulator template.

Protocol
Modbus TCP and Modbus RTU
Defaults
Serial port: the register list gives factory values of protocol Modbus, address 1, 19200 baud and even parity (registers 6500 to 6503); valid Modbus addresses are 1 to 247.
Addresses in the manual
1-based register numbers (wire address is the number minus 1)
32 and 64-bit values
Not stated in the manual
Registers listed
82
Checked against
PM556x_PublicModbusRegisterList_10th_August-23.xlsx; revision sheet lists versions up to 1.4 (PM5560 firmware 4.1.8)

Address base. Schneider's PM5500 register list does not state whether its register numbers are one-based or zero-based, and neither does the PM5500 user manual. Schneider's PM3200 user manual (DOCA0006EN-09, p. 50) and iEM3000 manual (DOCA0005EN-16, p. 56) both say register = address + 1, and the PM5500 list uses the same numbering style (3000 for the first current, 3204 for the first energy counter), so one-based is assumed here: wire address = printed number minus 1. Confirm on the meter by reading printed register 3000 (wire address 2999) as a float32 and checking it is a sensible current value; if it is not, shift every address by one. For example 30 in the manual (Meter name) is address 29 on the wire.

Word order. The register list does not state the word order for 32-bit and 64-bit values. Schneider FAQ FA237865 gives two examples for the 64-bit energy registers that disagree with each other (one treats the first register as the low half, the other as the highest word), so check against the meter before relying on either.

Modbus Poll and the Modbus protocol itself count from 0. The "Wire address" column is the number to type into Modbus Poll.

Downloads

The register table has every column on this page. The blocks file imports into Modbus Poll. The template JSON holds the same blocks plus unit, scale and access for scripts.

Registers

82 registers
Manual Wire Register Type Regs Unit Scale Access Area
30 29 Meter nameMeter_Name · Written only through the setup command interface (C in the list's Access column). string 20 1 RW Holding (FC03)
50 49 Meter modelMeter_Model · Written only through the setup command interface (C in the list's Access column). string 20 1 RW Holding (FC03)
70 69 Manufacturer nameManufacturer · Written only through the setup command interface (C in the list's Access column). string 20 1 RW Holding (FC03)
90 89 Product ID numberProduct_ID · Model code; the list gives 15235 for PM5560. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
130 129 Serial numberSerial_Number uint32 2 1 R Holding (FC03)
136 135 Hardware revisionHardware_Revision string 5 1 R Holding (FC03)
1637 1636 Present firmware versionFirmware_Version · Encoded as XXYYT in the list's DLF format. uint16 1 1 R Holding (FC03)
2004 2003 Meter operation timerMeter_Operation_Timer uint32 2 s 1 R Holding (FC03)
2014 2013 Number of phasesNumber_Of_Phases · Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
2015 2014 Number of wiresNumber_Of_Wires · Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
2016 2015 Power system configurationPower_System_Config · Enumeration from 0 to 13, factory value 11; the list names the wiring for each value. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
2017 2016 Nominal frequencyNominal_Frequency · Written only through the setup command interface (C in the list's Access column). uint16 1 Hz 1 RW Holding (FC03)
2018 2017 Nominal voltageNominal_Voltage · Written only through the setup command interface (C in the list's Access column). float32 2 V 1 RW Holding (FC03)
2026 2025 VT primary voltageVT_Primary · Written only through the setup command interface (C in the list's Access column). float32 2 V 1 RW Holding (FC03)
2028 2027 VT secondary voltageVT_Secondary · Written only through the setup command interface (C in the list's Access column). uint16 1 V 1 RW Holding (FC03)
2030 2029 CT primary currentCT_Primary · Range 1 to 32767 in the list; the unit column is blank. Written only through the setup command interface (C in the list's Access column). uint16 1 A 1 RW Holding (FC03)
3000 2999 Phase A currentCurrent_A float32 2 A 1 R Holding (FC03)
3002 3001 Phase B currentCurrent_B float32 2 A 1 R Holding (FC03)
3004 3003 Phase C currentCurrent_C float32 2 A 1 R Holding (FC03)
3006 3005 Neutral currentCurrent_N float32 2 A 1 R Holding (FC03)
3010 3009 Average currentCurrent_Avg float32 2 A 1 R Holding (FC03)
3018 3017 Worst current unbalanceCurrent_Unbalance_Worst float32 2 % 1 R Holding (FC03)
3020 3019 Voltage A to BVoltage_AB float32 2 V 1 R Holding (FC03)
3022 3021 Voltage B to CVoltage_BC float32 2 V 1 R Holding (FC03)
3024 3023 Voltage C to AVoltage_CA float32 2 V 1 R Holding (FC03)
3026 3025 Average line to line voltageVoltage_LL_Avg float32 2 V 1 R Holding (FC03)
3028 3027 Voltage A to neutralVoltage_AN float32 2 V 1 R Holding (FC03)
3030 3029 Voltage B to neutralVoltage_BN float32 2 V 1 R Holding (FC03)
3032 3031 Voltage C to neutralVoltage_CN float32 2 V 1 R Holding (FC03)
3036 3035 Average line to neutral voltageVoltage_LN_Avg float32 2 V 1 R Holding (FC03)
3044 3043 Worst line to line voltage unbalanceVoltage_Unbalance_LL_Worst float32 2 % 1 R Holding (FC03)
3052 3051 Worst line to neutral voltage unbalanceVoltage_Unbalance_LN_Worst float32 2 % 1 R Holding (FC03)
3054 3053 Phase A active powerActive_Power_A float32 2 kW 1 R Holding (FC03)
3056 3055 Phase B active powerActive_Power_B float32 2 kW 1 R Holding (FC03)
3058 3057 Phase C active powerActive_Power_C float32 2 kW 1 R Holding (FC03)
3060 3059 Total active powerActive_Power_Total float32 2 kW 1 R Holding (FC03)
3062 3061 Phase A reactive powerReactive_Power_A float32 2 kVAR 1 R Holding (FC03)
3064 3063 Phase B reactive powerReactive_Power_B float32 2 kVAR 1 R Holding (FC03)
3066 3065 Phase C reactive powerReactive_Power_C float32 2 kVAR 1 R Holding (FC03)
3068 3067 Total reactive powerReactive_Power_Total float32 2 kVAR 1 R Holding (FC03)
3070 3069 Phase A apparent powerApparent_Power_A float32 2 kVA 1 R Holding (FC03)
3072 3071 Phase B apparent powerApparent_Power_B float32 2 kVA 1 R Holding (FC03)
3074 3073 Phase C apparent powerApparent_Power_C float32 2 kVA 1 R Holding (FC03)
3076 3075 Total apparent powerApparent_Power_Total float32 2 kVA 1 R Holding (FC03)
3078 3077 Phase A power factorPower_Factor_A · Four-quadrant power factor encoding with values between -2 and 2; the Data Types sheet gives the decode steps. float32 2 1 R Holding (FC03)
3080 3079 Phase B power factorPower_Factor_B · Four-quadrant power factor encoding with values between -2 and 2; the Data Types sheet gives the decode steps. float32 2 1 R Holding (FC03)
3082 3081 Phase C power factorPower_Factor_C · Four-quadrant power factor encoding with values between -2 and 2; the Data Types sheet gives the decode steps. float32 2 1 R Holding (FC03)
3084 3083 Total power factorPower_Factor_Total · Four-quadrant power factor encoding with values between -2 and 2; the Data Types sheet gives the decode steps. float32 2 1 R Holding (FC03)
3110 3109 FrequencyFrequency float32 2 Hz 1 R Holding (FC03)
3132 3131 Meter temperatureTemperature float32 2 °C 1 R Holding (FC03)
21300 21299 Phase A current THDTHD_Current_A float32 2 % 1 R Holding (FC03)
21302 21301 Phase B current THDTHD_Current_B float32 2 % 1 R Holding (FC03)
21304 21303 Phase C current THDTHD_Current_C float32 2 % 1 R Holding (FC03)
21328 21327 Line to line voltage THDTHD_Voltage_LL float32 2 % 1 R Holding (FC03)
21338 21337 Line to neutral voltage THDTHD_Voltage_LN float32 2 % 1 R Holding (FC03)
2700 2699 Active energy delivered (float)Active_Energy_Delivered_F · Float32 copy of the 64-bit energy counter. float32 2 kWh 1 R Holding (FC03)
2702 2701 Active energy received (float)Active_Energy_Received_F · Float32 copy of the 64-bit energy counter. float32 2 kWh 1 R Holding (FC03)
3204 3203 Active energy delivered (into load)Active_Energy_Delivered · The Data Types sheet lists INT64 as a signed 64-bit integer. int64 4 Wh 1 R Holding (FC03)
3208 3207 Active energy received (out of load)Active_Energy_Received int64 4 Wh 1 R Holding (FC03)
3212 3211 Active energy delivered plus receivedActive_Energy_Total int64 4 Wh 1 R Holding (FC03)
3220 3219 Reactive energy deliveredReactive_Energy_Delivered int64 4 VARh 1 R Holding (FC03)
3224 3223 Reactive energy receivedReactive_Energy_Received int64 4 VARh 1 R Holding (FC03)
3236 3235 Apparent energy deliveredApparent_Energy_Delivered int64 4 VAh 1 R Holding (FC03)
3240 3239 Apparent energy receivedApparent_Energy_Received int64 4 VAh 1 R Holding (FC03)
4190 4189 Time of use / multi-tariff modeTariff_Mode · Range 0 to 2. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
4191 4190 Active tariff rateTariff_Active_Rate · Range 0 to 8. uint16 1 1 R Holding (FC03)
3766 3765 Active power present demandActive_Power_Demand float32 2 kW 1 R Holding (FC03)
3770 3769 Active power peak demandActive_Power_Peak_Demand float32 2 kW 1 R Holding (FC03)
3782 3781 Reactive power present demandReactive_Power_Demand float32 2 kVAR 1 R Holding (FC03)
3786 3785 Reactive power peak demandReactive_Power_Peak_Demand float32 2 kVAR 1 R Holding (FC03)
3798 3797 Apparent power present demandApparent_Power_Demand float32 2 kVA 1 R Holding (FC03)
3802 3801 Apparent power peak demandApparent_Power_Peak_Demand float32 2 kVA 1 R Holding (FC03)
6500 6499 RS-485 protocolRS485_Protocol · 0 = Modbus, 1 = Jbus, 2 = Modbus ASCII 8-bit, 3 = Modbus ASCII 7-bit; factory value 0. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
6501 6500 RS-485 addressRS485_Address · Valid Modbus addresses 1 to 247; factory value 1. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
6502 6501 RS-485 baud rate codeRS485_Baud_Rate · 0 = 9600, 1 = 19200 (factory value), 2 = 38400. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
6503 6502 RS-485 parity codeRS485_Parity · 0 = even (factory value), 1 = odd, 2 = none. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
7274 7273 Digital input 1 control modeDI1_Control_Mode · 0 = normal (alarm), 1 = demand interval sync pulse, 2 = multi-tariff control, 3 = input metering, 4 = conditional energy control, 5 = incremental energy reset. Written only through the setup command interface (C in the list's Access column). uint16 1 1 RW Holding (FC03)
8905 8904 Digital input status, base unitDI_Status · One bit per digital input. bitfield16 1 1 R Holding (FC03)
9667 9666 Digital output status, base unitDO_Status · Range 0x0000 to 0x000F. bitfield16 1 1 R Holding (FC03)
9673 9672 Digital output 1 control mode statusDO1_Control_Mode_Status · 0 = external, 1 = demand sync, 2 = alarm, 3 = energy. uint16 1 1 R Holding (FC03)
5000 4999 Requested command numberCommand_Requested · Range 1 to 32767. Schneider FAQ FA241856 describes the sequence: read the semaphore at 5680, then write the command number to 5000, the semaphore to 5001 and parameters from 5002. uint16 1 1 RW Holding (FC03)
5680 5679 Command semaphoreCommand_Semaphore · Read once to get the semaphore value used with commands; see the FAQ named at register 5000. uint16 1 1 RW Holding (FC03)

Scale is the number to multiply the raw value by to get the unit. Types with more than one register (32 and 64-bit) follow the word order above.

Open in Modbus Poll

  1. Download the Modbus Poll blocks file.
  2. Open Modbus Poll, connect to the device and set its unit ID. The manual does not state the word order for 32-bit values. Check one known value (a voltage or a counter) and switch the setting if it reads wrong.
  3. In the blocks panel on the right, click Import CSV and pick the file. CSV import is a Pro feature. Without Pro, Modbus Poll polls the first 20 values of your blocks.
  4. The wire addresses are already in the file, so there is no 0-based or 1-based conversion to do.

Once the values look right, export the tag list to Ignition, Kepware, Node-RED, Home Assistant or Voltrus SCADA.

Source and accuracy

Manufacturer document: PM556x Public Modbus Register List (PM5560, PM5561, PM5563 and related models) (se.my.site.com)

PM556x_PublicModbusRegisterList_10th_August-23.xlsx; revision sheet lists versions up to 1.4 (PM5560 firmware 4.1.8), Register List sheet, PM5560 column; Data Types and References sheets. Read on 2026-10-24.

Also used: Schneider FAQ FA234017: PowerLogic PM5000 series Modbus register list (download page for the xlsx) (www.se.com)

Also used: PowerLogic PM5500 / PM5600 / PM5700 series user manual HRB1684301-18 (productinfo.se.com)

Also used: Schneider FAQ FA241856: sending commands to PM5000 over Modbus (www.se.com)

Also used: Schneider FAQ FA237865: 64-bit energy in PM5000 series (www.se.com)

Also used: PM3200 series user manual DOCA0006EN-09 (states register = address + 1) (productinfo.se.com)

Also used: iEM3100 / iEM3200 / iEM3300 series user manual DOCA0005EN-16 (states register = address + 1) (productinfo.se.com)

Addresses, types, units and scale are taken from the document above. Names and descriptions are written by Voltrus. Firmware versions can differ, so confirm a value on your own device before you rely on it.

Found a mistake? Report it by email with the register address and the manual page.

Read more: Schneider PM5560 Modbus register map and simulator

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