Previously acceleration setpoints were not executed and just used
to pass a possible rough initialization value for the next task. Now
they get executed by the multicopter controller and hence
overwriting them with rough estimates doesn't work anymore.
This mode was just kept as an example after
its usage in a single case. It's basically untested
and doesn't make much sense anymore since it's
incompatible with the jerk limited trajectory
implementations. It's implementation only switched
hte configuration parameter of the velocity resulting
from maximum stick deflection to be
MPC_XY_VEL_MAX instead of MPC_VEL_MANUAL.
This is according to todays understanding undesired
because when hitting that limit the position
controller has no room for corrections anymore.
Also it saves some flash space on omnibus to remove
the task at this point and makes romm for the
acceleration feed-forward.
- interupt pin set active low and latch
- relax retry timeout if configure failed
- improve configured empty rate (sample rate) rounding
- fix RegisterCheck
- check FIFO count as part of full transfer and reset or adjust timing if necessary
- rename DRV_IMU_DEVTYPE_ICM20608 -> DRV_IMU_DEVTYPE_ICM20608G
Supposedly multiple sensor callbacks were supported; in reality, this
was not the case, as the mag SensorBridge in particular can only
calibrate one compass, leading to a race condition on which compass
appears first on the bus to get published and calibrated (with no
warning to the user that the 'wrong' compass is being used).
For sensors with existing generic driver classes (baro and mag) the
sensor bridges use these classes for the driver registration, and uORB
publication, and calibration interface (ioctl) handling.
- the device path needs to be removed, as startup fails if it already
exists
- sdp3x broadcasts a reset on startup, so do it only for the first I2C
address
- ecl/attitude_fw was never maintained as a standalone library
- moving ecl/attitude_fw library into the fw_att_control module to ease further development
* msg: Add EKF-GSF yaw estimator logging data
* ecl: update to version with EKF-GSF yaw estimator
* ekf2: Add param control and logging for EKF-GSF yaw estimator
* logger: Add logging for EKF-GSF yaw esimtator
* MC_HTE: unitialize with hover_thrust parameter
* MC_HTE: constrain hover thrust setter between 0.1 and 0.9
* MC_HTE: integrate with land detector and velocity controller
* MCHoverThrustEstimator: Always publish an estimate even when not fusing measurements. This is required as the land detector and the position controller need to receive a hover thrust value.
* MC_HTE: use altitude agl threshold to start the estimator
local_position.z is relative to the origin of the EKF while dist_bottom
is above ground
Co-authored-by: bresch <brescianimathieu@gmail.com>
This avoids the need for recalibration, and also cleans up other driver
ID's (merge separate accel/gyro).
The SPI address was previously set to a board-specific (arbitrary) value,
and is now set to 0. This will allow extending for multiple sensors of the
same type on the same bus.
Chip-select and SPI initialization uses the new config, whereas the drivers
still use the existing defines.
The configuration in board_config.h can be removed after all drivers are
updated.
- reduce CPU load
- fix earth rate gyro compensation
- make test with clang
- use switch statements in controlHeightFusion
Diff:
3fa5f501ae..230c865fa9
- refactor Run() into simple state machine
- perform reset and configuration in sensor bus thread
- when using data ready interrupt skip checking FIFO count
- checked register mechanism and simple watchdog
- driver checks for errors gradually and can reconfigure itself
- respect IMU_GYRO_RATEMAX at the driver level
- fixed sensor INT16_MIN and INT16_MAX handling (y & z axis are flipped before publishing)
- increased sensor_gyro_fifo max size (enables running the driver much slower, but still transferring all raw data)
- PX4Accelerometer/PX4Gyroscope remove unnecessary memsets
Unfortunately the constraints cannot be implemented using the
_constraints because the controller uses that directly. This
causes discontinuities in the velocity and/or accel at various
points of the flight. In particular this was used in Takeoff.
Instead this was done by changing target accel/velocity in the
jerk-optimal velocity planner for Z.