docs(i18n): PX4 guide translations (Crowdin) - uk (#26850)

Co-authored-by: Crowdin Bot <support+bot@crowdin.com>
This commit is contained in:
PX4 Build Bot
2026-03-27 13:32:55 +11:00
committed by GitHub
co-authored by Crowdin Bot
parent 2ffc643390
commit 274e9e3ee8
55 changed files with 1140 additions and 566 deletions
+44 -4
View File
@@ -164,6 +164,42 @@ $$\dot{B} = \gamma - \frac{\dot{V_T}}{g}$$
## Контролер положення фіксованого крила
### Setpoint modificaiton
Most fixed-wing aircraft cannot generate a sustained yaw rate using the rudder alone. As a result, the yaw component of the quaternion attitude error should be removed before computing the control action.
This is achieved by premultiplying the setpoint quaternion with a rotation about the global down axis. The additional rotation cancels the yaw component of the attitude error while preserving the roll and pitch components.
The yaw offset is
$$
\psi =-2\frac{\hat{q}_0 q_3 - \hat{q}_1 q_2 + \hat{q}_2 q_1 -\hat{q}_3 q_0}
{\hat{q}_0 q_0 - \hat{q}_1 q_1 - \hat{q}_2 q_2 + \hat{q}_3 q_3}
$$
The quaternion representing the yaw offset is
$$
ℚ_{\text{yaw}} =
\operatorname{normalize}
\left(
\begin{bmatrix}
1 \
0 \
0 \
\frac{\psi}{2}
\end{bmatrix}
\right)
$$
The corrected setpoint quaternion is then obtained by applying the rotation
$$
ℚ_{\text{sp, corrected}} = ℚ_{\text{yaw}} \otimes ℚ_{sp}
$$
### Quaternion based attitude controller
![FW Attitude Controller Diagram](../../assets/diagrams/px4_fw_attitude_controller_diagram.png)
<!-- The drawing is on draw.io: https://drive.google.com/file/d/1ibxekmtc6Ljq60DvNMplgnnU-JOvKYLQ/view?usp=sharing
@@ -186,12 +222,16 @@ The feedforward gain is used to compensate for aerodynamic damping.
### Поворотна координація
Контролери крену та тангажу мають однакову структуру, і довжинна та поперечна динаміка вважаються достатньо роз'єднаними, щоб працювати незалежно один від одного.
Контролер курсу, однак, генерує встановлення швидкості курсу, використовуючи обмеження координації повороту для мінімізації бокового прискорення, що виникає, коли літак слідкує. Алгоритм узгодження повороту базується виключно на узгодженому розрахунку геометрії повороту.
The yaw rate setpoint is generated using the turn coordination constraint in order to minimize lateral acceleration, generated when the aircraft is slipping.
$$\dot{\Psi}_{sp} = \frac{g}{V_T} \tan{\phi_{sp}} \cos{\theta_{sp}}$$
$$r_{sp} = \frac{2g}{V_T}\left(q_0 q_1 + q_2 q_3\right)$$
The yaw rate controller also helps to counteract [adverse yaw effects](https://youtu.be/sNV_SDDxuWk) and to damp the [Dutch roll mode](https://en.wikipedia.org/wiki/Dutch_roll) by providing extra directional damping.
This also helps to counteract [adverse yaw effects](https://youtu.be/sNV_SDDxuWk) and to damp the [Dutch roll mode](https://en.wikipedia.org/wiki/Dutch_roll) by providing extra directional damping.
To compensate for the non-zero pitch rate that naturally occurs during coordinated turns, a geometry-based feedforward term is added to the pitch-rate command.
This feedforward term accounts for the aircraft's current attitude and airspeed so that the controller does not need to generate this motion purely through feedback.
$$q_{sp}^{ff} = \frac{4g(q_0 q_1 + q_2 q_3)^2}{V(1 - 2q_1^2 - 2q_2^2)}$$
## Диспетчер польотів VTOL