[global]
# DTY Type: either OpenDTU or AhoyDTU
dtu_type = OpenDTU
# Smartmeter Type: either Smartmeter (generic, Tasmota, Hichi, ...), PowerOpti, ShellyEM3
smartmeter_type = Smartmeter

# Geolocation LAT/LNG
#latitude =
#longitude =

[solarflow]
# The product ID specifies the model of Solarflow hub to use:
# Hub-1200: "73bkTV"
# Hub-2000: "A8yh63"
# Hyper 2000: "gDa3tb"
# defaults to 73bkTV
#product_id = 73bkTV
# The device ID of your Solarflow Hub (typically 8 characters), you can get these either with solarflow-bt-manager or the solarflow-statuspage
device_id = 5ak8yGU7

# The time interval in hours that solarflow-control will try to ensure a full battery
# (i.e. no discharging if battry hasn't been at 100% for this long)
full_charge_interval = 32

# Let solarflow-control take over enabling/disabling the bypass of the hub (direct solarinput to hub output when battery is full)
# this overrides the automatic switching by the hub's firmware, which is sometimes a bit wierd
#control_bypass = true

# allow solarflow-control to change the hubs min/max SoC levels if specified in this configuration in section [control] via battery_low and battery_high
control_soc = true

[mqtt]
# Your local MQTT host configuration
mqtt_host = 192.168.1.245
#mqtt_port = 
#mqtt_user =
#mqtt_pwd =

[opendtu]
# The MQTT base topic your OpenDTU reports to (as configured in OpenDTU UI)
base_topic = solar
# your Inverters serial number
inverter_serial = 116491132532

# List of indices of the inverter channels/ports (as reported in the DTU) that the Solarflow Hub is connected to
# typically the index starts at 1 as 0 is the output channel of the inverter
# e.g. 1,3 or 3 or [1,3]
sf_inverter_channels = [3]

[ahoydtu]
# The MQTT base topic your AhoyDTU reports to (as configured in AhoyDTU UI)
base_topic = solar
# The inverter ID in AhoyDTU: typically 0 for the first inverter
inverter_id = 0
# List of indices of the inverter channels/ports (as reported in the DTU) that the Solarflow Hub is connected to
# typically the index starts at 1 as 0 is the output channel of the inverter
# e.g. 1,3 or 3 or [1,3]
sf_inverter_channels = [3]

# the max output power of your inverter, used to calculate correct absolute values
#inverter_max_power = 2000

# The name of the inverter in AhoyDTU
#inverter_name = AhoyDTU

[smartmeter]
# The MQTT base topic your Hichi, Tasmota, generic smartmeter reader reports to
base_topic = tele/E220/SENSOR
# if the published value at the base_topic is a JSON type then these accessors are used to get the power values
# e.g. if Smartmeter reader posts { "Power": {"Power_curr": 120, "Total_in": 12345.6} }
cur_accessor = Power.Power_curr
total_accessor = Power.Total_in
# rapid change difference defines the difference in W that has to be detected on the smartmeter readings to consider it a fast drop or rise in demand.
# this helps a faster adjustment in switching various limits e.g. when a water boiler is turned on/off
rapid_change_diff = 500
zero_offset = 20


[poweropti]
# Username and password for you Powerfox API to get readings (internet connection required)
poweropti_user = <PowerFox API user>
poweropti_password = <Powerfox API password>
rapid_change_diff = 500
zero_offset = 20


[shellyem3]
# The MQTT base topic your Shelly 3EM (Pro) is posting it's telemetry data to
# Note: you have to configure your Shelly to use MQTT
base_topic = shellies/shellyem3/
rapid_change_diff = 500
zero_offset = 20

[control]
min_charge_power = 125
max_discharge_power = 150

# the maximum power your inverter will feed to home
max_inverter_limit = 800

# the maximum power the hub would feed to the inverter channel, check with your inverter manual to avoid damage!
max_inverter_input = 700

limit_inverter = true

# to avoid DTUs to turn completely off and get unresponsive keep a minimum power feed to inverter
inverter_min_limit = 10

discharge_during_daytime = false
sunrise_offset = 60
sunset_offset = 60
battery_low = 2
battery_high = 100