import fsuipc with fsuipc.FSUIPC() as py_fsuipc : # Prepare the offset (0x02BC is airspeed, 4 bytes) airspeed = py_fsuipc.prepare_data( " 02BC " , 4 ) # Read the data from the simulator py_fsuipc.read() # Process the result (Airspeed is stored as knots * 128) knots = airspeed.value / 128 print( f " Current Airspeed: knots:.2f knots " ) Use code with caution. Copied to clipboard Why use Python for Flight Simming?
fs = fsuipc.connect()
Read data from an Arduino (e.g., a physical toggle switch state) via serial, then write the corresponding offset in FSUIPC to flip the virtual switch in the cockpit.
FSUIPC communicates via – memory addresses within the simulator process. Each offset corresponds to a specific variable.
Several Python projects simplify the process of communicating with these memory offsets:
import fsuipc with fsuipc.FSUIPC() as py_fsuipc : # Prepare the offset (0x02BC is airspeed, 4 bytes) airspeed = py_fsuipc.prepare_data( " 02BC " , 4 ) # Read the data from the simulator py_fsuipc.read() # Process the result (Airspeed is stored as knots * 128) knots = airspeed.value / 128 print( f " Current Airspeed: knots:.2f knots " ) Use code with caution. Copied to clipboard Why use Python for Flight Simming?
fs = fsuipc.connect()
Read data from an Arduino (e.g., a physical toggle switch state) via serial, then write the corresponding offset in FSUIPC to flip the virtual switch in the cockpit. fsuipc python
FSUIPC communicates via – memory addresses within the simulator process. Each offset corresponds to a specific variable. import fsuipc with fsuipc
Several Python projects simplify the process of communicating with these memory offsets: FSUIPC communicates via – memory addresses within the