- topic update was checked twice in the same loop and thus
the second time the topic would never indicate to have updated
Co-authored-by: RomanBapst <bapstroman@gmail.com>
- warn about full traffic conflict buffer at 1/60hz.
- add conflict expiry for buffer.
- use only events for buffer full warning. mavlink_log_critical no longer needed.
- use icao address for conflict warnings id, stop using uas_id. UTM_GLOBAL_POSITION assumed deprecated.
- stop spamming when buffer is full
- fix warning wording if buffer is full.
- remove UTM_GLOBAL_POSITION
Fixes failing unit test:
* [adsbTest] Reduce conflict timestamps - not enough time has passed in ci
- failed ci output - (passes locally with make tests TESTFILTER=AdsbConflict)
- Timestamp: 6000000000
- Time now: 457720038
- Time since timestamp: 0
- Old Conflict warning expired: 0
- --------------------
- adsb_conflict._traffic_state 0
- ../../src/lib/adsb/AdsbConflictTest.cpp:244: Failure
- Value of: adsb_conflict._traffic_state == TRAFFIC_STATE::REMIND_CONFLICT
- Actual: false
- Expected: true
Previously uORB queue size was an awkward mix of runtime configurable (at advertise or IOCTL before allocate), but effectively static with all queue size settings (outside of test code) actually coming from the topic declaration (presently ORB_QUEUE_LENGTH in the .msg). This change finally resolves the inconsistency making the queue size fully static.
Additionally there were some corner cases that the muorb and orb communicator implementation were not correctly handling. This PR provides fixes for those issues. Also correctly sets remote queue lengths now based on the topic definitions.
* Made setting of uORB topic queue size in based on topic definition only
* Fixes to the ModalAI muorb implementation
* Removed libfc sensor from format checks
* msg/TransponderReport.msg ORB_QUEUE_LENGTH 8->16 (was set to higher in AdsbConflict.h
---------
Co-authored-by: Eric Katzfey <eric.katzfey@modalai.com>
Co-authored-by: Daniel Agar <daniel@agar.ca>
- do reporting of breaching in-air only in geofenceCheck
- remove geofence_violation_reason_t
- replace geofence_breached field in GeofenceResult.msg with 3 fields
(one for each GF type: max dist, max alt, custom geofence)
- the warning message after breaching a GF is only done by Commander,
and it's specific to the GF type failure
Signed-off-by: Silvan Fuhrer <silvan@auterion.com>
The command is sent by a dedicated mavlink command and forwarded to the fixed wing position controller.
The pattern is defined by the radius of the major axis, the radius of the minor axis and the orientation. The pattern is then defined by:
The upper part of the pattern consist of a clockwise circle with radius defined by the minor axis. The center of the circle is defined by the major axis minus the minor axis away from the pattern center.
The lower part of the pattern consist of a counter-clockwise circle with the same definitions as above.
In between, the circles are connected with straight lines in a cross configuration. The lines are always tangetial to the circles.
The orientation rotates the major axis around the NED down axis.
The loitering logic is defined inside its own class used by the fixed wing position control module. It defines which segment (one of the circles or lines) is active and uses the path controller (npfg or l1-control) to determine the desired roll angle.
A feedback mavlink message is send with the executed pattern parameters.
This switches from the horribly intertwined ringbuffer implementation to
the new VariableLengthRingbuffer implementation.
By ditching the previous implementation, we fix MAVLink message
forwarding, which didn't work reliably. The reason it didn't work is
that multiple mavlink messages could be added but only one of them was
sent out because the buffer didn't keep track of the messages properly
and only read the first one.
Signed-off-by: Julian Oes <julian@oes.ch>
This prevents the mavlink transmit loop from waiting on the module mutex
thus not stopping transmissions when the mutex is already taken.
This can happen when calling `mavlink status` from the mavlink shell,
where `Mavlink::get_status_all_instances()` takes the mutex and then
prints the status via pipes to the mavlink transmit buffer.
If that pipe cannot be emptied a deadlock happens.
Since the MavlinkReceiver thread also waits on the module mutex, both
reception and transmission of Mavlink packets are then prevented thus
disabling communications entirely.
