Communication avec onduleur Hybride de type SRNE

[jlm]

C'est en effet le plus important pour pouvoir avancer sans faire des milliers de tests pour trouver quoi et quoi.
Si tu souhaites partager delà les registres que tu as pu tester avec succès, ne te gênes pas.

J'ai fouiné quelques minutes et j'ai trouvé ceci:

Code :

#################################################################################################################################
#                                   MODBUS
#################################################################################################################################

modbus:
  - name: modbus_tcp
    type: rtuovertcp
    host: 192.168.1.30
    port: 8888
    sensors:
#Load active power phase A
      - name: Modbus_Inverter_Power
        unit_of_measurement: W
        scale: 1
        slave: 1
        address: 539
        input_type: holding
       
#Battery level percentage
      - name: Modbus_Inverter_BatteryLevel
        unit_of_measurement: '%'
        scale: 1
        slave: 1
        address: 256
        input_type: holding

#Last equalizing charge completion time
      - name: Modbus_Inverter_BatteryLastEqualization
        scale: 1
        slave: 1
        address: 61507
        input_type: holding


#Battery voltage
      - name: Modbus_Inverter_BatteryV
        unit_of_measurement: V
        scale: 0.1
        precision: 1
        slave: 1
        address: 257
        input_type: holding
       
#PV panel 1 voltage
      - name: Modbus_Inverter_PV_voltage
        unit_of_measurement: V
        scale: 0.1
        precision: 1
        slave: 1
        address: 263
        input_type: holding
       
#PV panel 1 current
      - name: Modbus_Inverter_PV_current
        unit_of_measurement: A
        scale: 0.1
        precision: 1
        slave: 1
        address: 264
        input_type: holding
       
#PV panel 1 power
      - name: Modbus_Inverter_PV_power
        unit_of_measurement: W
        scale: 1
        slave: 1
        address: 265
        input_type: holding
       
#Total charge power, include charge power by mains and pv
      - name: Modbus_Inverter_Charge_power
        unit_of_measurement: W
        scale: 1
        slave: 1
        address: 270
        input_type: holding
       
#Charge state
      - name: Modbus_Inverter_battery_chargestate
        scale: 1
        slave: 1
        address: 267
        input_type: holding

#Current state of the machine
      - name: Modbus_Inverter_Operation
        scale: 1
        slave: 1
        address: 528
        input_type: holding

#Load side current phase A
      - name: Modbus_Inverter_current
        unit_of_measurement: A
        scale: 0.1
        precision: 1
        slave: 1
        address: 537
        input_type: holding
       
#Battery side current when charging on mains
      - name: Modbus_Inverter_Main_charge_current
        unit_of_measurement: A
        scale: 0.1
        precision: 1
        slave: 1
        address: 542
        input_type: holding
       
#Battery side current by PV charging
      - name: Modbus_Inverter_PV_charge_current
        unit_of_measurement: A
        scale: 0.1
        precision: 1
        slave: 1
        address: 548
        input_type: holding

#The total PV power generation of the day, applicable to the 2nd generation machines
      - name: Modbus_Inverter_pv_daily_consumption
        unit_of_measurement: kWh
        scale: 0.1
        precision: 1
        slave: 1
        address: 61487
        input_type: holding

#The total battery charge level (AH) of the day
      - name: Modbus_Inverter_battery_charge_daily
        unit_of_measurement: Ah
        scale: 1
        slave: 1
        address: 61485
        input_type: holding

#The total battery discharge level (AH) of the day
      - name: Modbus_Inverter_battery_discharge_daily
        unit_of_measurement: Ah
        scale: 1
        slave: 1
        address: 61486
        input_type: holding

#The total PV power generation of the day
      - name: Modbus_Inverter_pv_daily_consumption
        unit_of_measurement: kWh
        scale: 0.1
        precision: 1
        slave: 1
        address: 61487
        input_type: holding

#The total power consumption by load of the day
      - name: Modbus_Inverter_load_daily_consumption
        unit_of_measurement: kWh
        scale: 0.1
        precision: 1
        slave: 1
        address: 61485
        input_type: holding
       
#Total running days
      - name: Modbus_Inverter_uptime
        unit_of_measurement: days
        scale: 1
        slave: 1
        address: 61489
        input_type: holding

#Accumulated PV power generation
      - name: Modbus_Inverter_PV_Generated
        unit_of_measurement: kWh
        state_class: total_increasing
        scale: 0.1
        precision: 1
        slave: 1
        address: 61496
        input_type: holding

#Power consumption by load from mains of today
      - name: Modbus_Inverter_Main_load_power_daily
        unit_of_measurement: kWh
        scale: 0.1
        precision: 1
        slave: 1
        address: 61501
        input_type: holding

#DC-DC heat sink temperature
      - name: Modbus_Inverter_DCDC_temp
        unit_of_measurement: '°C'
        scale: 0.1
        precision: 1
        slave: 1
        address: 544
        input_type: holding

#DC-AC heat sink temperature
      - name: Modbus_Inverter_DCAC_temp
        unit_of_measurement: '°C'
        scale: 0.1
        precision: 1
        slave: 1
        address: 545
        input_type: holding

#Translator heat sink tmperature
      - name: Modbus_Inverter_translator_temp
        unit_of_measurement: '°C'
        scale: 0.1
        precision: 1
        slave: 1
        address: 546
        input_type: holding
       
#Load percentage phase A
      - name: Modbus_Inverter_LoadRatio
        unit_of_measurement: '%'
        scale: 1
        slave: 1
        address: 543
        input_type: holding

Est-ce que les adresses affichées ci-dessus correspondes avec celles que tu as trouvées ?