Self configured energy meter
When your energy meter has configurable modbus addresses (or when your energy meter is not in the list of supported devices)
, we supply a feature to configure an energy meter yourself.
It's a process that allows you to set up the energy meter as a modbus slave, enabling it to communicate with the a-TroniX Controller .
Vorsicht Vorsicht WARNING: Special support terms apply:
*Please note that this feature is provided “as-is” and should be used at your own risk.
If you run into any issues or need dedicated assistance, we’re happy to help under a support contract.
Contact
Connect the meter to the a-TroniX Controller using RS485 or Modbus TCP.
For Modbus-TCP ethernet : Please follow For RS485 : Please follow
Also, check your meter's manual for the correct wiring and connection details and check if any settings need to be
changed to enable the modbus communication .
Collect the following information from your energy meter:
Modbus address : The address of the energy meter on the RS485 bus.Baud rate : The communication speed of the energy meter (e.g., 9600, 19200, etc.).Parity : The parity setting of the energy meter (e.g., None, Even, Odd).Register information : For each measurement you want to read, you'll need:
Register address (in decimal)
Data type (e.g., int16, uint32, float32)
Word order (if applicable for multi-register values)
Any scaling factor or offset needed
The type of measurement (e.g., voltage, current, power)
Open the a-TroniX Controller web interface and navigate to the energy meter configuration section.
Then, find the "Generic" driver:
Select the interface you'd like to use (RS485 or Modbus TCP).
You'll need to provide a JSON configuration that defines which registers to read and how to interpret them. The configuration follows this structure:
[ { "dataType" : "float32" , "address" : 3000 , "wordOrder" : "bigEndian" , "scaleFactor" : 1 , "measurement" : "actualPowerTot_W" }, { "dataType" : "uint32" , "address" : 3002 , "wordOrder" Each register configuration requires:
dataType: The type of data stored in the register (e.g., "int16", "uint32", "float32")address: The Modbus register address in decimalmeasurement: The standardized measurement name (e.g., "actualPowerTot_W", "importedAbsEnergyTot_Wh")
wordOrder: How multi-register values are ordered ("bigEndian", "littleEndian", "middleEndian", "reverseWord")scaleFactor: Value to multiply the raw register value by (default: 1)offset: Value to add after scaling (default: 0)bytePosition: Position within a byte array (if applicable)enumMapping: For enum types, maps values to stringslength: For arrays or byte fields, number of itemssigned: For numeric types, whether the value is signed We strongly recommend including at least:
Total Power (actualPowerTot_W)
Total Imported Energy (importedAbsEnergyTot_Wh)
Total Exported Energy (exportedAbsEnergyTot_Wh) if bi-directional
Enter the code in this place:
I see an error The input is strictly validated, and will not accept any mistakes:
The example above is not accepted because the user choose total power instead of actualPowerTot_W.
The following measurements are accepted:
actualPowerL1_W actualPowerL2_W actualPowerL3_W actualPowerTot_W reacPowerL1_VAr reacPowerL2_VAr reacPowerL3_VAr reacPowerTot_VAr importedAbsEnergyL1_Wh importedAbsEnergyL2_Wh importedAbsEnergyL3_Wh importedAbsEnergyTot_Wh importedEnergyTodayTot_Wh importedAbsReacEnergyL1_VArh importedAbsReacEnergyL2_VArh importedAbsReacEnergyL3_VArh importedAbsReacEnergyTot_VArh importedEnergyDeltaTot_Wh grossImportedEnergyDeltaTot_Wh importedReacEnergyDeltaL1_VArh importedReacEnergyDeltaL2_VArh importedReacEnergyDeltaL3_VArh importedReacEnergyDeltaTot_VArh exportedAbsEnergyL1_Wh exportedAbsEnergyL2_Wh exportedAbsEnergyL3_Wh exportedAbsEnergyTot_Wh exportedEnergyTodayTot_Wh After filling in the required information, save the configuration.
The a-TroniX Controller will now attempt to communicate with the energy meter using the provided settings.
Tipp Tipp For better organization, you can create your JSON configuration in a text editor first, then paste it into the configuration field. This makes it easier to edit and validate the structure before applying it.
:
"bigEndian"
,
"scaleFactor" : 0.1 ,
"measurement" : "importedAbsEnergyTot_Wh"
}
]
exportedAbsReacEnergyL1_VArh
exportedAbsReacEnergyL2_VArh
exportedAbsReacEnergyL3_VArh
exportedAbsReacEnergyTot_VArh
exportedEnergyDeltaL1_Wh
exportedEnergyDeltaL2_Wh
exportedEnergyDeltaL3_Wh
exportedEnergyDeltaTot_Wh
grossExportedEnergyDeltaTot_Wh
exportedReacEnergyDeltaL1_VArh
exportedReacEnergyDeltaL2_VArh
exportedReacEnergyDeltaL3_VArh
exportedReacEnergyDeltaTot_VArh
producedAbsEnergyL1_Wh
producedAbsEnergyL2_Wh
producedAbsEnergyL3_Wh
producedAbsEnergyTot_Wh
producedAbsReacEnergyTot_VArh
consumedAbsEnergyL1_Wh
consumedAbsEnergyL2_Wh
consumedAbsEnergyL3_Wh
consumedAbsEnergyTot_Wh
consumedEnergyTodayTot_Wh
consumedAbsReacEnergyTot_VArh
producedEnergyDeltaTot_Wh
consumedEnergyDeltaTot_Wh
producedEnergyTodayTot_Wh
chargedAbsEnergyTot_Wh
chargedEnergyTodayTot_Wh
chargedEnergyDeltaTot_Wh
dischargedAbsEnergyTot_Wh
dischargedEnergyTodayTot_Wh
dischargedEnergyDeltaTot_Wh
childrenProducedEnergyDeltaTot_Wh
childrenConsumedEnergyDeltaTot_Wh
childrenLoadsPower_W
childrenLoadsImpEnergyDeltaTot_Wh
childrenLoadsExpEnergyDeltaTot_Wh
childrenOtherPower_W
childrenOtherImpEnergyDeltaTot_Wh
childrenOtherExpEnergyDeltaTot_Wh
childrenUnmeasPower_W
childrenUnmeasImpEnergyDeltaTot_Wh
childrenUnmeasExpEnergyDeltaTot_Wh
childrenProducedPower_W
childrenConsumedPower_W
childrenStoragePower_W
childrenEVPower_W
childrenHVACPower_W
autoconsumedEnergyDeltaTot_Wh
producedExpEnergyDeltaTot_Wh
childrenStorageChargedEnergyDeltaTot_Wh
childrenStorageDischargedEnergyDeltaTot_Wh
childrenStorageSolarChargeEnergyDeltaTot_Wh
childrenStorageGridChargeEnergyDeltaTot_Wh
childrenStorageSolarDischargeEnergyDeltaTot_Wh
childrenStorageGridDischargeEnergyDeltaTot_Wh
childrenEVChargeEnergyDeltaTot_Wh
childrenHVACEnergyDeltaTot_Wh
currentL1_A
currentL2_A
currentL3_A
currentN_A
currentLAvg_A
voltageL1N_V
voltageL2N_V
voltageL3N_V
voltageLNAvg_V
voltageL1L2_V
voltageL2L3_V
voltageL3L1_V
voltageLLAvg_V
frequency_Hz
powerFactorTot
powerFactorL1
powerFactorL2
powerFactorL3
voltageDCBus_V
voltageInput1_V
currentInput1_A
powerInput1_W
voltageInput2_V
currentInput2_A
powerInput2_W
voltageInput3_V
currentInput3_A
powerInput3_W
voltageInput4_V
currentInput4_A
powerInput4_W
voltageInput5_V
currentInput5_A
powerInput5_W
voltageInput6_V
currentInput6_A
powerInput6_W
voltageInput7_V
currentInput7_A
powerInput7_W
voltageInput8_V
currentInput8_A
powerInput8_W
voltageInput9_V
currentInput9_A
powerInput9_W
voltageInput10_V
currentInput10_A
powerInput10_W
voltageDC_V
currentDC_A
voltageInputA_V
currentInputA_A
powerInputA_W
voltageInputA1_V
currentInputA1_A
powerInputA1_W
voltageInputA2_V
currentInputA2_A
powerInputA2_W
voltageInputA3_V
currentInputA3_A
powerInputA3_W
voltageInputA4_V
currentInputA4_A
powerInputA4_W
voltageInputA5_V
currentInputA5_A
powerInputA5_W
voltageInputA6_V
currentInputA6_A
powerInputA6_W
voltageInputB_V
currentInputB_A
powerInputB_W
voltageInputB1_V
currentInputB1_A
powerInputB1_W
voltageInputB2_V
currentInputB2_A
powerInputB2_W
voltageInputB3_V
currentInputB3_A
powerInputB3_W
voltageInputB4_V
currentInputB4_A
powerInputB4_W
voltageInputB5_V
currentInputB5_A
powerInputB5_W
voltageInputB6_V
currentInputB6_A
powerInputB6_W
currentInputTot_A
voltageInputAvg_V
powerInputTot_W
cabinetTemp_degC
ambientTemp_degC
heatSinkTemp_degC
isolationResistance_kOhm
runTimeTot_s
status
statusMsg
workingMode
operationMode
heatingAbsEnergy_Wh
heatingAbsVolume_m3
flowRate_m3ph
thermalPower_W
departureLineTemp_degC
returnLineTemp_degC
chargedAbsSessionEnergyTot_Wh
sessionDuration_s
chargingSessionId
evNumOfPhases
evUsedPhases
evTargetACChargeCurrent_A
evRequiringCharge
remainingEnergy_Wh
batteryVoltage_V
batteryCurrent_A
batteryPower_W
batteryTemp_degC
batteryOperationMode
PVOperationMode
gridOperationMode
current_A
consumedEnergy_Ah
stateOfCharge_frac
powerSetpoint_W
minStateOfCharge_frac
stateOfHealth_frac
storedEnergy_Wh
absVolume_m3
volumeDelta_m3
flow_m3ps
absPulseCount
pulseCountDelta
pulseRate_ph
flow1_m3ps
flow2_m3ps
flow3_m3ps
flow4_m3ps
flow5_m3ps
Self configured energy meter | a-tronix Documentation flow6_m3ps
flow7_m3ps
flow8_m3ps
flow9_m3ps
flow1_Lps
flow2_Lps
flow3_Lps
flow4_Lps
flow5_Lps
flow6_Lps
flow7_Lps
flow8_Lps
flow9_Lps
