Hi DerArtem,
Thank you for the generic datasheet.
This charger is not CAN controlled.
I could make it work on my bench by reverse engineering the connectors, see images attached.
Unknown is the rated PWM frequency, so a technical datasheet would be appreciated. I used a few kHz for testing.
Somewhere I found a note this charger works at PWM 5%..95%, else it shuts off.
I expect the charger works as a current source, so it will provide charging current based on PWM dutycycle as long as the output keeps in the 240V to 325V dc range.
Most likely you need to monitor the batterypack's state of charge and it's temperature by yourself.
Normally it is not a problem when the (Lipo) cells are discharged below a terminal voltage of 240V, the charger attempts to force current into the cells at lifting the terminals to 240V minimum.
However, the cells must be able to withstand charging at 240V minimum, when the charging current at this terminal voltage exceeds 26A max the charger will shut off.
cheers
Thank you for the generic datasheet.
This charger is not CAN controlled.
I could make it work on my bench by reverse engineering the connectors, see images attached.
Unknown is the rated PWM frequency, so a technical datasheet would be appreciated. I used a few kHz for testing.
Somewhere I found a note this charger works at PWM 5%..95%, else it shuts off.
I expect the charger works as a current source, so it will provide charging current based on PWM dutycycle as long as the output keeps in the 240V to 325V dc range.
Most likely you need to monitor the batterypack's state of charge and it's temperature by yourself.
Normally it is not a problem when the (Lipo) cells are discharged below a terminal voltage of 240V, the charger attempts to force current into the cells at lifting the terminals to 240V minimum.
However, the cells must be able to withstand charging at 240V minimum, when the charging current at this terminal voltage exceeds 26A max the charger will shut off.
cheers