The MPL3115A2 ADC conversion at OSR 2 (ratio 4) takes ~18ms. The
driver polls until the conversion completes, so the read time is at
the end of the integration window. Correct timestamp_sample to the
midpoint by subtracting CONVERSION_TIME / 2.
The LPS25H one-shot measurement is integrated over a ~40ms window
(at 25Hz-equivalent internal averaging). The read time corresponds to
the end of the integration window. Correct timestamp_sample to the
midpoint by subtracting CONVERSION_INTERVAL / 2.
The LPS22HB one-shot measurement is integrated over a ~40ms window
(at 25Hz-equivalent internal averaging). The read time corresponds to
the end of the integration window. Correct timestamp_sample to the
midpoint by subtracting CONVERSION_INTERVAL / 2.
Same fix as MS5611: the MS5837 ADC conversion at OSR 1024 takes
~2.28ms, but the data is read after a 10ms scheduling delay. Correct
timestamp_sample by subtracting (CONVERSION_INTERVAL - CONVERSION_TIME/2)
from the read time.
The MS5611 ADC conversion at OSR 1024 takes ~2.28ms, but the data is
read after a 10ms scheduling delay. The current code timestamps the
read time, which is ~8.9ms after the true integration midpoint.
Correct timestamp_sample by subtracting the full offset
(CONVERSION_INTERVAL - CONVERSION_TIME/2) from the read time.
The BMP581 pressure measurement is integrated over a configurable
window (~23ms at 32x pressure / 2x temperature oversampling). The
read time corresponds to the end of the integration window, introducing
a systematic timing bias. Correct timestamp_sample to the midpoint by
subtracting measurement_time / 2.
The BMP280 pressure measurement is integrated over _measure_interval
(~43ms at 16x pressure / 2x temperature oversampling). The read time
corresponds to the end of the integration window, introducing a
systematic timing bias. Correct timestamp_sample to the midpoint by
subtracting measurement_time / 2.
The BMP388 pressure measurement is integrated over a configurable
window (e.g. 37ms at 16x oversampling). The previous code used the
read time as timestamp_sample, which is the end of the integration
window. Correct to the midpoint by subtracting half the measurement
time, with a guard against unsigned underflow.
The MAVLink standard defines ACTUATOR_OUTPUT_FUNCTION_MOTOR1=1..MOTOR16=16,
but PX4 internally uses OutputFunction::Motor1=101..Motor12=112. The DShot
driver only handled PX4 internal values (101+) and QGC legacy values (1101+),
so any standards-compliant GCS sending the MAVLink enum values would get
VEHICLE_CMD_RESULT_UNSUPPORTED back from MAV_CMD_CONFIGURE_ACTUATOR.
Add a mapping from MAVLink standard values (1-16) to PX4 internal values
(101-116) by adding 100, matching the existing QGC backwards-compat pattern.
* [feat] allowed to assign up to 16 ESC CAN
* Update EscStatus.msg
lowered down to 12 motors, hardware tested
* Update module.yaml
lowered down to 12 motors, hardware tested
---------
Co-authored-by: klelkov <kon.lelkov@yandex.ru>
Co-authored-by: Jacob Dahl <37091262+dakejahl@users.noreply.github.com>
