3 Commits

Author SHA1 Message Date
Oleg Kalachev fa848e589e Use Serial1 for sbus on all platforms 2026-05-10 01:17:00 +03:00
Oleg Kalachev bcacad7ff8 Use Serial1 for for rc on esp32-c3 2026-05-09 19:25:03 +03:00
Oleg Kalachev 3e59688818 Add esp32-c3 build to ci 2026-05-09 18:59:58 +03:00
28 changed files with 75 additions and 361 deletions
+2 -7
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@@ -23,10 +23,10 @@ jobs:
with: with:
name: firmware-binary name: firmware-binary
path: flix/build path: flix/build
- name: Build firmware for ESP32-C3
run: make BOARD=esp32:esp32:esp32c3
- name: Build firmware for ESP32-S3 - name: Build firmware for ESP32-S3
run: make BOARD=esp32:esp32:esp32s3 run: make BOARD=esp32:esp32:esp32s3
- name: Build firmware for ESP32-C3
run: make BOARD=esp32:esp32:esp32c3
- name: Check c_cpp_properties.json - name: Check c_cpp_properties.json
run: tools/check_c_cpp_properties.py run: tools/check_c_cpp_properties.py
@@ -76,11 +76,6 @@ jobs:
run: sudo apt-get install -y libsdl2-dev run: sudo apt-get install -y libsdl2-dev
- name: Build simulator - name: Build simulator
run: make build_simulator run: make build_simulator
- name: Run simulator
env:
GAZEBO_MODEL_PATH: ${{ github.workspace }}/gazebo/models
GAZEBO_PLUGIN_PATH: ${{ github.workspace }}/gazebo/build
run: timeout --preserve-status 120 gzserver --verbose gazebo/flix.world || [ $? -eq 143 ]
- uses: actions/upload-artifact@v4 - uses: actions/upload-artifact@v4
with: with:
name: gazebo-plugin-binary name: gazebo-plugin-binary
-4
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@@ -18,10 +18,6 @@ dependencies .dependencies:
arduino-cli lib install "MAVLink"@2.0.25 arduino-cli lib install "MAVLink"@2.0.25
touch .dependencies touch .dependencies
upload_proxy: .dependencies
arduino-cli compile --fqbn $(BOARD) tools/espnow-proxy
arduino-cli upload --fqbn $(BOARD) -p "$(PORT)" tools/espnow-proxy
gazebo/build cmake: gazebo/CMakeLists.txt gazebo/build cmake: gazebo/CMakeLists.txt
mkdir -p gazebo/build mkdir -p gazebo/build
cd gazebo/build && cmake .. cd gazebo/build && cmake ..
+11 -17
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@@ -21,8 +21,8 @@
* Dedicated for education and research. * Dedicated for education and research.
* Made from general-purpose components. * Made from general-purpose components.
* Simple and clean source code in Arduino (<2k lines firmware). * Simple and clean source code in Arduino (<2k lines firmware).
* Communication using MAVLink protocol over Wi-Fi or ESP-NOW. * Connectivity using Wi-Fi and MAVLink protocol.
* Control with USB gamepad, remote control or smartphone. * Control using USB gamepad, remote control or smartphone.
* Wireless command line interface and analyzing. * Wireless command line interface and analyzing.
* Precise simulation with Gazebo. * Precise simulation with Gazebo.
* Python library for scripting and automatic flights. * Python library for scripting and automatic flights.
@@ -47,14 +47,6 @@ See the [user builds gallery](docs/user.md):
<a href="docs/user.md"><img src="docs/img/user/user.jpg" width=500></a> <a href="docs/user.md"><img src="docs/img/user/user.jpg" width=500></a>
### PCB
The official PCB *(Flix2)* is in development now. Follow the [project's channel](https://t.me/opensourcequadcopter) to track the progress.
Outdoor flights demo video of the current prototype:
<a href="https://youtu.be/KXlNmvUTi4g"><img width=300 src="https://i3.ytimg.com/vi/KXlNmvUTi4g/maxresdefault.jpg"></a>
## Simulation ## Simulation
The simulator is implemented using Gazebo and runs the original Arduino code: The simulator is implemented using Gazebo and runs the original Arduino code:
@@ -79,9 +71,9 @@ Additional articles:
|Type|Part|Image|Quantity| |Type|Part|Image|Quantity|
|-|-|:-:|:-:| |-|-|:-:|:-:|
|Microcontroller board|ESP32 Mini.<br>ESP32-S3/ESP32-C3 boards are also supported.|<img src="docs/img/esp32.jpg" width=100>|1| |Microcontroller board|ESP32 Mini|<img src="docs/img/esp32.jpg" width=100>|1|
|IMU (and barometer¹) board|GY91, MPU-9265 (or other MPU9250/MPU6500 board)<br>ICM20948V2 (ICM20948)<br>GY-521 (MPU-6050)|<img src="docs/img/gy-91.jpg" width=90 align=center><br><img src="docs/img/icm-20948.jpg" width=100><br><img src="docs/img/gy-521.jpg" width=100>|1| |IMU (and barometer¹) board|GY91, MPU-9265 (or other MPU9250/MPU6500 board)<br>ICM20948V2 (ICM20948)³<br>GY-521 (MPU-6050)³⁻¹|<img src="docs/img/gy-91.jpg" width=90 align=center><br><img src="docs/img/icm-20948.jpg" width=100><br><img src="docs/img/gy-521.jpg" width=100>|1|
|*Boost converter (optional, for more stable power supply)*|*5V output*|<img src="docs/img/buck-boost.jpg" width=100>|1| |Boost converter (optional, for more stable power supply)|5V output|<img src="docs/img/buck-boost.jpg" width=100>|1|
|Motor|8520 3.7V brushed motor.<br>Motor with exact 3.7V voltage is needed, not ranged working voltage (3.7V — 6V).<br>Make sure the motor shaft diameter and propeller hole diameter match!|<img src="docs/img/motor.jpeg" width=100>|4| |Motor|8520 3.7V brushed motor.<br>Motor with exact 3.7V voltage is needed, not ranged working voltage (3.7V — 6V).<br>Make sure the motor shaft diameter and propeller hole diameter match!|<img src="docs/img/motor.jpeg" width=100>|4|
|Propeller|55 mm or 65 mm|<img src="docs/img/prop.jpg" width=100>|4| |Propeller|55 mm or 65 mm|<img src="docs/img/prop.jpg" width=100>|4|
|MOSFET (transistor)|100N03A or [analog](https://t.me/opensourcequadcopter/33)|<img src="docs/img/100n03a.jpg" width=100>|4| |MOSFET (transistor)|100N03A or [analog](https://t.me/opensourcequadcopter/33)|<img src="docs/img/100n03a.jpg" width=100>|4|
@@ -160,16 +152,18 @@ You can see a user-contributed [variant of complete circuit diagram](https://mir
|-|-| |-|-|
|GND|GND| |GND|GND|
|VIN|VCC (or 3.3V depending on the receiver)| |VIN|VCC (or 3.3V depending on the receiver)|
|Signal (TX)|GPIO4| |Signal (TX)|GPIO4¹|
* Optionally connect the battery voltage divider for voltage monitoring to any ADC1 pin (e. g. *GPIO32* on ESP32, *GPIO3* on ESP32-S3). *¹ — UART2 RX pin was [changed](https://docs.espressif.com/projects/arduino-esp32/en/latest/migration_guides/2.x_to_3.0.html#id14) to GPIO4 in Arduino ESP32 core 3.0.*
ESP32 and ESP32-S3 [can measure](https://docs.espressif.com/projects/arduino-esp32/en/latest/api/adc.html#analogsetattenuation) up to 3.1 V and ESP32-S3/ESP32-C3 can measure up to 2.5 V, so choose the voltage divider resistors accordingly. * Optionally connect the battery voltage divider for voltage monitoring to any ADC1 pin (e. g. *GPIO32* on ESP32, *GPIO3* on ESP32S3).
ESP32 and ESP32S3 [can measure](https://docs.espressif.com/projects/arduino-esp32/en/latest/api/adc.html#analogsetattenuation) up to 3.1 V and ESP32S3/ESP32C3 can measure up to 2.5 V, so choose the voltage divider resistors accordingly.
## Resources ## Resources
* Telegram channel on developing the drone and the flight controller (in Russian): https://t.me/opensourcequadcopter. * Telegram channel on developing the drone and the flight controller (in Russian): https://t.me/opensourcequadcopter.
* Official Telegram chat: https://t.me/opensourcequadcopterchat (English / Russian). * Official Telegram chat: https://t.me/opensourcequadcopterchat.
* Detailed article on Habr.com about the development of the drone (in Russian): https://habr.com/ru/articles/814127/. * Detailed article on Habr.com about the development of the drone (in Russian): https://habr.com/ru/articles/814127/.
## Disclaimer ## Disclaimer
-29
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@@ -67,35 +67,6 @@ In order to add a console command, modify the `doCommand()` function in `cli.ino
> >
> For on-the-ground commands, use `pause()` function, instead of `delay()`. This function allows to pause in a way that MAVLink connection will continue working. > For on-the-ground commands, use `pause()` function, instead of `delay()`. This function allows to pause in a way that MAVLink connection will continue working.
### Parameter subsystem
Parameters subsystem (`parameters.ino`) uses standard [Preferences.h](https://docs.espressif.com/projects/arduino-esp32/en/latest/tutorials/preferences.html) ESP32 library to store parameters in non-volatile memory. Each parameter is a regular global variable, which is registered in the `parameters` array.
To add a new parameter:
1. Define a global variable for the parameter, two types are supported: `float` and `int`.
2. Add an entry to the `parameters` array, with the parameter name, a pointer to the variable, and optionally a callback function to call when the parameter is changed.
3. Everything else will be handled automatically.
See examples of adding new parameters in commits: [c434107](https://github.com/okalachev/flix/commit/c434107), [a687303](https://github.com/okalachev/flix/commit/a687303).
## Adding a subsystem
To add a new subsystem:
1. Create a new `*.ino` file for your subsystem.
2. Define setup and loop functions for the subsystem, for example `setupMySubsystem()` and `loopMySubsystem()`.
3. Use `Rate` class if you need to limit the loop frequency, for example:
```cpp
Rate mySubsystemRate(100); // 100 Hz
void loopMySubsystem() {
if (!mySubsystemRate) return;
// Do something...
}
4. Add setup and loop calls in to `setup()` and `loop()` functions in `flix.ino`.
## Building the firmware ## Building the firmware
See build instructions in [usage.md](usage.md). See build instructions in [usage.md](usage.md).
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+1 -1
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@@ -5,7 +5,7 @@
Do the following: Do the following:
* **Check ESP32 core is installed**. Check if the version matches the one used in the [tutorial](usage.md#building-the-firmware). * **Check ESP32 core is installed**. Check if the version matches the one used in the [tutorial](usage.md#building-the-firmware).
* **Check libraries**. Install all the required libraries from the tutorial. Make sure there are no MPU-9250 or other peripherals libraries that may conflict with the ones used in the tutorial. * **Check libraries**. Install all the required libraries from the tutorial. Make sure there are no MPU9250 or other peripherals libraries that may conflict with the ones used in the tutorial.
* **Check the chosen board**. The correct board to choose in Arduino IDE for ESP32 Mini is *WEMOS D1 MINI ESP32*. * **Check the chosen board**. The correct board to choose in Arduino IDE for ESP32 Mini is *WEMOS D1 MINI ESP32*.
## The drone doesn't fly ## The drone doesn't fly
+8 -48
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@@ -138,7 +138,7 @@ Before flight you need to calibrate the accelerometer:
If using non-default motor pins, set the pin numbers using the parameters: `MOTOR_PIN_FL`, `MOTOR_PIN_FR`, `MOTOR_PIN_RL`, `MOTOR_PIN_RR` (front-left, front-right, rear-left, rear-right respectively). If using non-default motor pins, set the pin numbers using the parameters: `MOTOR_PIN_FL`, `MOTOR_PIN_FR`, `MOTOR_PIN_RL`, `MOTOR_PIN_RR` (front-left, front-right, rear-left, rear-right respectively).
Certain ESP32 models (such as ESP32-S3 and ESP32-C3) support a lower maximum PWM frequency; on these boards the parameter `MOT_PWM_FREQ` should be set to 38000 Hz. Certain ESP32 models (such as ESP32-S3) support a lower maximum PWM frequency; on these boards the parameter `MOT_PWM_FREQ` should be set to 38000 Hz.
If using brushless motors and ESCs: If using brushless motors and ESCs:
@@ -192,18 +192,6 @@ There are several ways to control the drone's flight: using **smartphone** (Wi-F
### Control with a smartphone ### Control with a smartphone
#### Using Mavlink Joystick app (Android)
<img src="https://github.com/goldarte/mavlink-joystick/blob/master/app_screen.png?raw=true" width="400">
1. Download and install [Mavlink Joystick app](https://github.com/goldarte/mavlink-joystick/releases/latest).
2. Power the drone using the battery.
3. Connect your smartphone to the appeared `flix` Wi-Fi network (password: `flixwifi`).
4. Open Mavlink Joystick app. It should connect and begin showing the drone's telemetry automatically.
5. Use the virtual joystick to fly the drone!
#### Using QGroundControl app
1. Install [QGroundControl mobile app](https://docs.qgroundcontrol.com/master/en/qgc-user-guide/getting_started/download_and_install.html#android) on your smartphone. 1. Install [QGroundControl mobile app](https://docs.qgroundcontrol.com/master/en/qgc-user-guide/getting_started/download_and_install.html#android) on your smartphone.
2. Power the drone using the battery. 2. Power the drone using the battery.
3. Connect your smartphone to the appeared `flix` Wi-Fi network (password: `flixwifi`). 3. Connect your smartphone to the appeared `flix` Wi-Fi network (password: `flixwifi`).
@@ -216,11 +204,11 @@ There are several ways to control the drone's flight: using **smartphone** (Wi-F
### Control with a remote control ### Control with a remote control
If using SBUS-connected remote control you need to enable SBUS and calibrate it: Before using SBUS-connected remote control you need to enable SBUS and calibrate it:
1. Connect to the drone using QGroundControl. 1. Connect to the drone using QGroundControl.
2. In parameters, set the `RC_RX_PIN` parameter to the GPIO pin number where the SBUS signal is connected, for example: 4. Negative value disables SBUS. 2. In parameters, set the `RC_RX_PIN` parameter to the GPIO pin number where the SBUS signal is connected, for example: 4. Negative value disables SBUS.
3. Check if the receiver is working using `rc` command in the console. 3. Reboot the drone to apply changes.
4. Open the console, type `cr` command and follow the instructions to calibrate the remote control. 4. Open the console, type `cr` command and follow the instructions to calibrate the remote control.
5. Use the remote control to fly the drone! 5. Use the remote control to fly the drone!
@@ -290,8 +278,11 @@ The Wi-Fi mode is chosen using `WIFI_MODE` parameter in QGroundControl or in the
* `0` — Wi-Fi is disabled. * `0` — Wi-Fi is disabled.
* `1` — Access Point mode *(AP)* — the drone creates a Wi-Fi network. * `1` — Access Point mode *(AP)* — the drone creates a Wi-Fi network.
* `2` — Client mode *(STA)* — the drone connects to an existing Wi-Fi network (may cause additional delays, so generally not recommended). * `2` — Client mode *(STA)* — the drone connects to an existing Wi-Fi network.
* `3` — ESP-NOW mode — the drone uses ESP-NOW protocol for communication. * `3` — *ESP-NOW (not implemented yet)*.
> [!WARNING]
> Tests showed that Client mode may cause **additional delays** in remote control (due to retranslations), so it's generally not recommended.
The SSID and password are configured using the `ap` and `sta` console commands: The SSID and password are configured using the `ap` and `sta` console commands:
@@ -313,37 +304,6 @@ Disabling Wi-Fi:
p WIFI_MODE 0 p WIFI_MODE 0
``` ```
### Using ESP-NOW
[ESP-NOW](https://docs.espressif.com/projects/esp-idf/en/stable/esp32/api-reference/network/esp_now.html) is a low level wireless communication protocol. It can provide lower latency, better reliability, and longer range than Wi-Fi. However, it requires a second ESP32 board to be used as a proxy for the computer.
<img src="img/espnow-connection.jpg" width="600">
To setup ESP-NOW communication:
1. Flash the second ESP32 board with ESP-NOW proxy sketch: [`tools/espnow-proxy/espnow-proxy.ino`](../tools/espnow-proxy/espnow-proxy.ino). Use Arduino IDE or command line: `make upload_proxy`.
2. Open Serial Monitor or use `make monitor` command. The ESP32 will print its MAC address and generated encryption key, for example:
```
espnow 7a:c8:e3:eb:bf:e9 &PiuSysxP9+$L&5E
```
Run this line as a console command on each drone you want to bind to this proxy board. [The maximum number](https://github.com/espressif/esp-idf/blob/e95cab4be8fd293e3f3323181e7a2280874da6f7/components/esp_wifi/include/esp_now.h#L32-L33) of simultaneously connected drones is 20 (unencrypted) io 6 (encrypted).
3. Set the `WIFI_MODE` parameter to `3` on the drone:
```
p WIFI_MODE 3
```
4. Go to the QGroundControl menu ⇒ *Application Settings* ⇒ *Comm Links*, add new link with the following settings:
* Name: ESP32.
* Type: Serial.
* Serial Port: choose the port of the proxy ESP32 board, e. g. `/dev/cu.usbserial-0001`.
* Baud Rate: 115200.
5. Click *Save*. QGroundControl should connect to the drone using ESP-NOW and begin showing the telemetry.
## Flight log ## Flight log
After the flight, you can download the flight log for analysis wirelessly. Use the following command on your computer for that: After the flight, you can download the flight log for analysis wirelessly. Use the following command on your computer for that:
-8
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@@ -12,14 +12,6 @@ Description: XR2981 based DC-DC converter, ELRS MINI 2.4GHz RX SX1280 receiver (
--- ---
Author: Oleg Kalachev.<br>
Description: the first attempt on making an official PCB based Flix drone (Flix2 board). The IMU is not working on this version, so an external MPU-6050 board was used, therefore considered as **Flix version 1.5**.<br>
[Flight video](https://drive.google.com/file/d/1R7tuUsFmPY0CGcOCFfMFaCp9kR49K3bl/view?usp=sharing).
<img src="img/flix1.5.jpg" width=300>
---
Author: [FanBy0ru](https://https://github.com/FanBy0ru).<br> Author: [FanBy0ru](https://https://github.com/FanBy0ru).<br>
Description: custom 3D-printed frame.<br> Description: custom 3D-printed frame.<br>
Frame STLs and flight validation: https://cults3d.com/en/3d-model/gadget/armature-pour-flix-drone. Frame STLs and flight validation: https://cults3d.com/en/3d-model/gadget/armature-pour-flix-drone.
+3 -8
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@@ -10,7 +10,6 @@
extern const int MOTOR_REAR_LEFT, MOTOR_REAR_RIGHT, MOTOR_FRONT_RIGHT, MOTOR_FRONT_LEFT; extern const int MOTOR_REAR_LEFT, MOTOR_REAR_RIGHT, MOTOR_FRONT_RIGHT, MOTOR_FRONT_LEFT;
extern const int RAW, ACRO, STAB, AUTO; extern const int RAW, ACRO, STAB, AUTO;
extern const int W_AP, W_STA, W_ESPNOW;
extern float t, dt, loopRate; extern float t, dt, loopRate;
extern uint16_t channels[16]; extern uint16_t channels[16];
extern float controlTime; extern float controlTime;
@@ -20,14 +19,13 @@ extern LowPassFilter<Vector> gyroBiasFilter;
extern float voltage; extern float voltage;
const char* motd = const char* motd =
"\nWelcome to\n"
" _______ __ __ ___ ___\n" " _______ __ __ ___ ___\n"
"| ____|| | | | \\ \\ / /\n" "| ____|| | | | \\ \\ / /\n"
"| |__ | | | | \\ V /\n" "| |__ | | | | \\ V /\n"
"| __| | | | | > <\n" "| __| | | | | > <\n"
"| | | `----.| | / . \\\n" "| | | `----.| | / . \\\n"
"|__| |_______||__| /__/ \\__\\\n\n" "|__| |_______||__| /__/ \\__\\\n\n"
"(C) Oleg Kalachev\n"
"https://github.com/okalachev/flix\n\n"
"Commands:\n\n" "Commands:\n\n"
"help - show help\n" "help - show help\n"
"p - show all parameters\n" "p - show all parameters\n"
@@ -46,7 +44,6 @@ const char* motd =
"wifi - show Wi-Fi info\n" "wifi - show Wi-Fi info\n"
"ap <ssid> <password> - setup Wi-Fi access point\n" "ap <ssid> <password> - setup Wi-Fi access point\n"
"sta <ssid> <password> - setup Wi-Fi client mode\n" "sta <ssid> <password> - setup Wi-Fi client mode\n"
"espnow <mac> [<key>] - setup ESP-NOW peer\n"
"mot - show motor output\n" "mot - show motor output\n"
"log [dump] - print log header [and data]\n" "log [dump] - print log header [and data]\n"
"cr - calibrate RC\n" "cr - calibrate RC\n"
@@ -145,11 +142,9 @@ void doCommand(String str, bool echo = false) {
} else if (command == "wifi") { } else if (command == "wifi") {
printWiFiInfo(); printWiFiInfo();
} else if (command == "ap") { } else if (command == "ap") {
configWiFi(W_AP, arg0.c_str(), arg1.c_str()); configWiFi(true, arg0.c_str(), arg1.c_str());
} else if (command == "sta") { } else if (command == "sta") {
configWiFi(W_STA, arg0.c_str(), arg1.c_str()); configWiFi(false, arg0.c_str(), arg1.c_str());
} else if (command == "espnow") {
configWiFi(W_ESPNOW, arg0.c_str(), arg1.c_str());
} else if (command == "mot") { } else if (command == "mot") {
print("front-right %g front-left %g rear-right %g rear-left %g\n", print("front-right %g front-left %g rear-right %g rear-left %g\n",
motors[MOTOR_FRONT_RIGHT], motors[MOTOR_FRONT_LEFT], motors[MOTOR_REAR_RIGHT], motors[MOTOR_REAR_LEFT]); motors[MOTOR_FRONT_RIGHT], motors[MOTOR_FRONT_LEFT], motors[MOTOR_REAR_RIGHT], motors[MOTOR_REAR_LEFT]);
+1 -8
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@@ -14,10 +14,6 @@ public:
LowPassFilter(float alpha): alpha(alpha) {}; LowPassFilter(float alpha): alpha(alpha) {};
T update(const T input) { T update(const T input) {
if (!init) {
init = true;
return output = input;
}
return output += alpha * (input - output); return output += alpha * (input - output);
} }
@@ -26,9 +22,6 @@ public:
} }
void reset() { void reset() {
init = false; output = T(); // set to zero
} }
private:
bool init = false;
}; };
+3 -3
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@@ -41,12 +41,12 @@ void sendMavlink() {
MAV_VTOL_STATE_UNDEFINED, landed ? MAV_LANDED_STATE_ON_GROUND : MAV_LANDED_STATE_IN_AIR); MAV_VTOL_STATE_UNDEFINED, landed ? MAV_LANDED_STATE_ON_GROUND : MAV_LANDED_STATE_IN_AIR);
sendMessage(&msg); sendMessage(&msg);
uint16_t voltages[] = {(uint16_t)(voltage * 1000), UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX}; uint16_t voltages[] = {voltage * 1000, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX, UINT16_MAX};
uint16_t voltagesExt[] = {0, 0, 0, 0}; uint16_t voltagesExt[] = {0, 0, 0, 0};
float remaining = constrain(mapf(voltage, 3.4, 4.2, 0, 1), 0, 1); float remaining = constrain(mapf(voltage, 3.4, 4.2, 0, 1), 0, 1);
mavlink_msg_battery_status_pack(mavlinkSysId, MAV_COMP_ID_AUTOPILOT1, &msg, 0, MAV_BATTERY_FUNCTION_ALL, mavlink_msg_battery_status_pack(mavlinkSysId, MAV_COMP_ID_AUTOPILOT1, &msg, 0, MAV_BATTERY_FUNCTION_ALL,
MAV_BATTERY_TYPE_LIPO, INT16_MAX, voltages, -1, -1, -1, remaining * 100, 0, MAV_BATTERY_CHARGE_STATE_OK, voltagesExt, 0, 0); MAV_BATTERY_TYPE_LIPO, INT16_MAX, voltages, -1, -1, -1, remaining * 100, 0, MAV_BATTERY_CHARGE_STATE_OK, voltagesExt, 0, 0);
if (valid(voltage)) sendMessage(&msg); sendMessage(&msg);
} }
if (telemetryFast && mavlinkConnected) { if (telemetryFast && mavlinkConnected) {
@@ -241,7 +241,7 @@ void handleMavlink(const void *_msg) {
} }
if (m.command == MAV_CMD_COMPONENT_ARM_DISARM) { if (m.command == MAV_CMD_COMPONENT_ARM_DISARM) {
if (m.param1 == 1 && controlThrottle > 0.05) return; // don't arm if throttle is not low if (m.param1 && controlThrottle > 0.05) return; // don't arm if throttle is not low
accepted = true; accepted = true;
armed = m.param1 == 1; armed = m.param1 == 1;
} }
+4 -1
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@@ -14,7 +14,10 @@ int pwmStop = 0;
int pwmMin = 0; int pwmMin = 0;
int pwmMax = -1; // -1 means duty cycle mode int pwmMax = -1; // -1 means duty cycle mode
const int MOTOR_REAR_LEFT = 0, MOTOR_REAR_RIGHT = 1, MOTOR_FRONT_RIGHT = 2, MOTOR_FRONT_LEFT = 3; const int MOTOR_REAR_LEFT = 0;
const int MOTOR_REAR_RIGHT = 1;
const int MOTOR_FRONT_RIGHT = 2;
const int MOTOR_FRONT_LEFT = 3;
void setupMotors() { void setupMotors() {
print("Setup Motors\n"); print("Setup Motors\n");
+7 -8
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@@ -6,11 +6,13 @@
#include <Preferences.h> #include <Preferences.h>
#include "util.h" #include "util.h"
extern int channelZero[16], channelMax[16]; extern int channelZero[16];
extern int channelMax[16];
extern int rollChannel, pitchChannel, throttleChannel, yawChannel, armedChannel, modeChannel; extern int rollChannel, pitchChannel, throttleChannel, yawChannel, armedChannel, modeChannel;
extern int rcRxPin, voltagePin; extern int rcRxPin;
extern int wifiMode, wifiLongRange, udpLocalPort, udpRemotePort, espnowChannel; extern int wifiMode, udpLocalPort, udpRemotePort;
extern float rcLossTimeout, descendTime; extern float rcLossTimeout, descendTime;
extern int voltagePin;
extern float voltageScale; extern float voltageScale;
extern LowPassFilter<float> voltageFilter; extern LowPassFilter<float> voltageFilter;
@@ -84,7 +86,7 @@ Parameter parameters[] = {
{"MOT_PWM_MIN", &pwmMin}, {"MOT_PWM_MIN", &pwmMin},
{"MOT_PWM_MAX", &pwmMax}, {"MOT_PWM_MAX", &pwmMax},
// rc // rc
{"RC_RX_PIN", &rcRxPin, setupRC}, {"RC_RX_PIN", &rcRxPin},
{"RC_ZERO_0", &channelZero[0]}, {"RC_ZERO_0", &channelZero[0]},
{"RC_ZERO_1", &channelZero[1]}, {"RC_ZERO_1", &channelZero[1]},
{"RC_ZERO_2", &channelZero[2]}, {"RC_ZERO_2", &channelZero[2]},
@@ -110,15 +112,12 @@ Parameter parameters[] = {
{"WIFI_MODE", &wifiMode}, {"WIFI_MODE", &wifiMode},
{"WIFI_PORT_LOC", &udpLocalPort}, {"WIFI_PORT_LOC", &udpLocalPort},
{"WIFI_PORT_REM", &udpRemotePort}, {"WIFI_PORT_REM", &udpRemotePort},
{"WIFI_LONG_RANGE", &wifiLongRange},
// espnow
{"ESPNOW_CHANNEL", &espnowChannel},
// mavlink // mavlink
{"MAV_SYS_ID", &mavlinkSysId}, {"MAV_SYS_ID", &mavlinkSysId},
{"MAV_RATE_SLOW", &telemetrySlow.rate}, {"MAV_RATE_SLOW", &telemetrySlow.rate},
{"MAV_RATE_FAST", &telemetryFast.rate}, {"MAV_RATE_FAST", &telemetryFast.rate},
// power // power
{"PWR_VOLT_PIN", &voltagePin, setupPower}, {"PWR_VOLT_PIN", &voltagePin},
{"PWR_VOLT_SCALE", &voltageScale}, {"PWR_VOLT_SCALE", &voltageScale},
{"PWR_VOLT_LPF_A", &voltageFilter.alpha}, {"PWR_VOLT_LPF_A", &voltageFilter.alpha},
// safety // safety
+3 -3
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@@ -8,14 +8,14 @@
#include "lpf.h" #include "lpf.h"
#include "util.h" #include "util.h"
float voltage = NAN; float voltage;
LowPassFilter<float> voltageFilter(0.2); LowPassFilter<float> voltageFilter(0.2);
int voltagePin = -1; int voltagePin = -1;
float voltageScale = 2; float voltageScale = 2;
void setupPower() { void setupPower() {
REG_CLR_BIT(RTC_CNTL_BROWN_OUT_REG, RTC_CNTL_BROWN_OUT_ENA); // disable reset on low voltage // Disable reset on low voltage
if (digitalPinToAnalogChannel(voltagePin) == -1) voltagePin = -1; // test ADC pin REG_CLR_BIT(RTC_CNTL_BROWN_OUT_REG, RTC_CNTL_BROWN_OUT_ENA);
} }
void readVoltage() { void readVoltage() {
+10 -10
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@@ -55,18 +55,18 @@ void calibrateRC() {
print("RC_RX_PIN = %d, set the RC pin!\n", rcRxPin); print("RC_RX_PIN = %d, set the RC pin!\n", rcRxPin);
return; return;
} }
uint16_t zero[16]; // for zero positions uint16_t zero[16];
uint16_t center[16]; // for center positions uint16_t center[16];
uint16_t _[16]; // for unused data uint16_t max[16];
print("1/8 Calibrating RC: put all switches to default positions [3 sec]\n"); print("1/8 Calibrating RC: put all switches to default positions [3 sec]\n");
pause(3); pause(3);
calibrateRCChannel(NULL, _, zero, "2/8 Move sticks [3 sec]\n... ...\n... .o.\n.o. ...\n"); calibrateRCChannel(NULL, zero, zero, "2/8 Move sticks [3 sec]\n... ...\n... .o.\n.o. ...\n");
calibrateRCChannel(&throttleChannel, zero, _, "3/8 Move sticks [3 sec]\n.o. ...\n... .o.\n... ...\n"); calibrateRCChannel(NULL, center, center, "3/8 Move sticks [3 sec]\n... ...\n.o. .o.\n... ...\n");
calibrateRCChannel(NULL, _, center, "4/8 Move sticks [3 sec]\n... ...\n.o. .o.\n... ...\n"); calibrateRCChannel(&throttleChannel, zero, max, "4/8 Move sticks [3 sec]\n.o. ...\n... .o.\n... ...\n");
calibrateRCChannel(&yawChannel, center, _, "5/8 Move sticks [3 sec]\n... ...\n..o .o.\n... ...\n"); calibrateRCChannel(&yawChannel, center, max, "5/8 Move sticks [3 sec]\n... ...\n..o .o.\n... ...\n");
calibrateRCChannel(&pitchChannel, zero, _, "6/8 Move sticks [3 sec]\n... .o.\n... ...\n.o. ...\n"); calibrateRCChannel(&pitchChannel, zero, max, "6/8 Move sticks [3 sec]\n... .o.\n... ...\n.o. ...\n");
calibrateRCChannel(&rollChannel, zero, _, "7/8 Move sticks [3 sec]\n... ...\n... ..o\n.o. ...\n"); calibrateRCChannel(&rollChannel, zero, max, "7/8 Move sticks [3 sec]\n... ...\n... ..o\n.o. ...\n");
calibrateRCChannel(&modeChannel, zero, _, "8/8 Put mode switch to max [3 sec]\n"); calibrateRCChannel(&modeChannel, zero, max, "8/8 Put mode switch to max [3 sec]\n");
printRCCalibration(); printRCCalibration();
} }
+1 -15
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@@ -6,7 +6,6 @@
#pragma once #pragma once
#include <math.h> #include <math.h>
#include <ESP32_NOW_Serial.h>
const float ONE_G = 9.80665; const float ONE_G = 9.80665;
extern float t; extern float t;
@@ -37,26 +36,13 @@ float wrapAngle(float angle) {
// Trim and split string by spaces // Trim and split string by spaces
void splitString(String& str, String& token0, String& token1, String& token2) { void splitString(String& str, String& token0, String& token1, String& token2) {
str.trim(); str.trim();
if (str.isEmpty()) return;
char chars[str.length() + 1]; char chars[str.length() + 1];
str.toCharArray(chars, str.length() + 1); str.toCharArray(chars, str.length() + 1);
token0 = strtok(chars, " "); token0 = strtok(chars, " ");
token1 = strtok(NULL, " "); token1 = strtok(NULL, " "); // String(NULL) creates empty string
token2 = strtok(NULL, ""); token2 = strtok(NULL, "");
if (token1.c_str() == NULL) token1 = "";
if (token2.c_str() == NULL) token2 = "";
} }
// Simplified ESP-NOW Serial without tx buffering and resends
class ESPNOWSerial : public ESP_NOW_Serial_Class {
public:
using ESP_NOW_Serial_Class::ESP_NOW_Serial_Class;
void onSent(bool success) override {} // disable resends
size_t write(const uint8_t *data, size_t len) override {
return ESP_NOW_Peer::send(data, len); // pure send without buffering
}
};
// Rate limiter // Rate limiter
class Rate { class Rate {
public: public:
+15 -71
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@@ -1,133 +1,77 @@
// Copyright (c) 2023 Oleg Kalachev <okalachev@gmail.com> // Copyright (c) 2023 Oleg Kalachev <okalachev@gmail.com>
// Repository: https://github.com/okalachev/flix // Repository: https://github.com/okalachev/flix
// Wi-Fi and ESP-NOW communication // Wi-Fi communication
#include <WiFi.h> #include <WiFi.h>
#include <WiFiAP.h> #include <WiFiAP.h>
#include <WiFiUdp.h> #include <WiFiUdp.h>
#include <MacAddress.h> #include "Preferences.h"
#include <ESP32_NOW_Serial.h>
#include <Preferences.h>
#include "util.h"
extern Preferences storage; // use the main preferences storage extern Preferences storage; // use the main preferences storage
const int W_DISABLED = 0, W_AP = 1, W_STA = 2, W_ESPNOW = 3; const int W_DISABLED = 0, W_AP = 1, W_STA = 2;
int wifiMode = W_AP; int wifiMode = W_AP;
int wifiLongRange = 0;
int udpLocalPort = 14550; int udpLocalPort = 14550;
int udpRemotePort = 14550; int udpRemotePort = 14550;
IPAddress udpRemoteIP = "255.255.255.255"; IPAddress udpRemoteIP = "255.255.255.255";
WiFiUDP udp;
ESPNOWSerial espnow(NULL, 0, WIFI_IF_AP); WiFiUDP udp;
ESPNOWSerial espnowBroadcast(ESP_NOW.BROADCAST_ADDR, 0, WIFI_IF_AP);
int espnowChannel = 6;
void setupWiFi() { void setupWiFi() {
print("Setup Wi-Fi\n"); print("Setup Wi-Fi\n");
WiFi.enableLongRange(wifiLongRange);
if (wifiMode == W_AP) { if (wifiMode == W_AP) {
WiFi.softAP(storage.getString("WIFI_AP_SSID", "flix").c_str(), storage.getString("WIFI_AP_PASS", "flixwifi").c_str()); WiFi.softAP(storage.getString("WIFI_AP_SSID", "flix").c_str(), storage.getString("WIFI_AP_PASS", "flixwifi").c_str());
udp.begin(udpLocalPort); } else if (wifiMode == W_STA) {
}
if (wifiMode == W_STA) {
WiFi.begin(storage.getString("WIFI_STA_SSID", "").c_str(), storage.getString("WIFI_STA_PASS", "").c_str()); WiFi.begin(storage.getString("WIFI_STA_SSID", "").c_str(), storage.getString("WIFI_STA_PASS", "").c_str());
udp.begin(udpLocalPort);
} }
if (wifiMode == W_ESPNOW) {
WiFi.mode(WIFI_AP);
WiFi.setChannel(espnowChannel);
espnow.addr(MacAddress(storage.getString("ESPNOW_PEER_MAC", "FF:FF:FF:FF:FF:FF").c_str()));
String key = storage.getString("ESPNOW_PEER_KEY", "");
espnow.setKey(key.isEmpty() ? nullptr : (const uint8_t *)key.c_str());
espnow.begin();
espnowBroadcast.begin();
}
WiFi.setSleep(false); // disable power save WiFi.setSleep(false); // disable power save
udp.begin(udpLocalPort);
} }
void sendWiFi(const uint8_t *buf, int len) { void sendWiFi(const uint8_t *buf, int len) {
if (espnow) {
espnow.write(buf, len);
static Rate discovery(2);
if (discovery) espnowBroadcast.write((const uint8_t *)"flix", 4); // broadcast message to help finding this device
return;
}
if (WiFi.softAPgetStationNum() == 0 && !WiFi.isConnected()) return; if (WiFi.softAPgetStationNum() == 0 && !WiFi.isConnected()) return;
udp.beginPacket(udpRemoteIP, udpRemotePort); udp.beginPacket(udpRemoteIP, udpRemotePort);
udp.write(buf, len); udp.write(buf, len);
udp.endPacket(); udp.endPacket();
} }
int receiveWiFi(uint8_t *buf, int len) { int receiveWiFi(uint8_t *buf, int len) {
if (espnow) {
return espnow.read(buf, len);
}
if (WiFi.softAPgetStationNum() == 0 && !WiFi.isConnected()) return 0;
udp.parsePacket(); udp.parsePacket();
if (udp.remoteIP()) udpRemoteIP = udp.remoteIP(); if (udp.remoteIP()) udpRemoteIP = udp.remoteIP();
return udp.read(buf, len); return udp.read(buf, len);
} }
void printWiFiInfo() { void printWiFiInfo() {
if (espnow) { if (WiFi.getMode() == WIFI_MODE_AP) {
print("Mode: ESP-NOW\n");
print("ESP-NOW version: %d\n", ESP_NOW.getVersion());
print("Max packet size: %d\n", ESP_NOW.getMaxDataLen());
print("MAC: %s\n", WiFi.softAPmacAddress().c_str());
print("Peer MAC: %s\n", MacAddress(espnow.addr()).toString().c_str());
print("Encrypted: %d\n", espnow.isEncrypted());
print("Channel: %d\n", espnow.getChannel());
} else if (WiFi.getMode() == WIFI_MODE_AP) {
print("Mode: Access Point (AP)\n"); print("Mode: Access Point (AP)\n");
print("MAC: %s\n", WiFi.softAPmacAddress().c_str()); print("MAC: %s\n", WiFi.softAPmacAddress().c_str());
print("SSID: %s\n", WiFi.softAPSSID().c_str()); print("SSID: %s\n", WiFi.softAPSSID().c_str());
print("Password: ***\n"); print("Password: ***\n");
print("Channel: %d\n", WiFi.channel());
print("Clients: %d\n", WiFi.softAPgetStationNum()); print("Clients: %d\n", WiFi.softAPgetStationNum());
print("IP: %s\n", WiFi.softAPIP().toString().c_str()); print("IP: %s\n", WiFi.softAPIP().toString().c_str());
print("Remote IP: %s\n", udpRemoteIP.toString().c_str());
} else if (WiFi.getMode() == WIFI_MODE_STA) { } else if (WiFi.getMode() == WIFI_MODE_STA) {
print("Mode: Client (STA)\n"); print("Mode: Client (STA)\n");
print("Connected: %d\n", WiFi.isConnected()); print("Connected: %d\n", WiFi.isConnected());
print("MAC: %s\n", WiFi.macAddress().c_str()); print("MAC: %s\n", WiFi.macAddress().c_str());
print("SSID: %s\n", WiFi.SSID().c_str()); print("SSID: %s\n", WiFi.SSID().c_str());
print("Password: ***\n"); print("Password: ***\n");
print("Channel: %d\n", WiFi.channel());
print("RSSI: %d dBm\n", WiFi.RSSI());
print("IP: %s\n", WiFi.localIP().toString().c_str()); print("IP: %s\n", WiFi.localIP().toString().c_str());
print("Remote IP: %s\n", udpRemoteIP.toString().c_str());
} else { } else {
print("Mode: Disabled\n"); print("Mode: Disabled\n");
return;
} }
print("Remote IP: %s\n", udpRemoteIP.toString().c_str());
print("MAVLink connected: %d\n", mavlinkConnected); print("MAVLink connected: %d\n", mavlinkConnected);
} }
void configWiFi(int mode, const char *first, const char *second) { void configWiFi(bool ap, const char *ssid, const char *password) {
MacAddress mac; if (ap) {
if (mode == W_AP && strlen(first) > 0 && strlen(second) >= 8) { storage.putString("WIFI_AP_SSID", ssid);
storage.putString("WIFI_AP_SSID", first); storage.putString("WIFI_AP_PASS", password);
storage.putString("WIFI_AP_PASS", second);
} else if (mode == W_STA && strlen(first) > 0 && strlen(second) >= 8) {
storage.putString("WIFI_STA_SSID", first);
storage.putString("WIFI_STA_PASS", second);
} else if (mode == W_ESPNOW && mac.fromString(first)) {
storage.putString("ESPNOW_PEER_MAC", first);
storage.putString("ESPNOW_PEER_KEY", strlen(second) == ESP_NOW_KEY_LEN ? second : "");
} else { } else {
print("Invalid configuration\n"); storage.putString("WIFI_STA_SSID", ssid);
return; storage.putString("WIFI_STA_PASS", password);
} }
print("✓ Reboot to apply new settings\n"); print("✓ Reboot to apply new settings\n");
} }
-1
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@@ -168,7 +168,6 @@ void delay(uint32_t ms) {
bool ledcAttach(uint8_t pin, uint32_t freq, uint8_t resolution) { return true; } bool ledcAttach(uint8_t pin, uint32_t freq, uint8_t resolution) { return true; }
bool ledcWrite(uint8_t pin, uint32_t duty) { return true; } bool ledcWrite(uint8_t pin, uint32_t duty) { return true; }
uint32_t ledcChangeFrequency(uint8_t pin, uint32_t freq, uint8_t resolution) { return freq; } uint32_t ledcChangeFrequency(uint8_t pin, uint32_t freq, uint8_t resolution) { return freq; }
int8_t digitalPinToAnalogChannel(uint8_t pin) { return -1; }
uint32_t analogReadMilliVolts(uint8_t pin) { return 0; } uint32_t analogReadMilliVolts(uint8_t pin) { return 0; }
unsigned long __micros; unsigned long __micros;
-12
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@@ -1,12 +0,0 @@
// Dummy file for the simulator
class ESP_NOW_Peer {
protected:
size_t send(const uint8_t *data, int len) { return 0; }
};
class ESP_NOW_Serial_Class : public ESP_NOW_Peer {
public:
virtual void onSent(bool success) {};
virtual size_t write(const uint8_t *data, size_t len) { return 0; };
};
+1 -3
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@@ -43,10 +43,9 @@ void print(const char* format, ...);
void pause(float duration); void pause(float duration);
void doCommand(String str, bool echo); void doCommand(String str, bool echo);
void handleInput(); void handleInput();
void setupRC();
void normalizeRC(); void normalizeRC();
void calibrateRC(); void calibrateRC();
void calibrateRCChannel(int*, uint16_t[16], uint16_t[16], const char*); void calibrateRCChannel(int *channel, uint16_t zero[16], uint16_t max[16], const char *str);
void printRCCalibration(); void printRCCalibration();
void printLogHeader(); void printLogHeader();
void printLogData(); void printLogData();
@@ -58,7 +57,6 @@ void handleMavlink(const void *_msg);
void mavlinkPrint(const char* str); void mavlinkPrint(const char* str);
void sendMavlinkPrint(); void sendMavlinkPrint();
inline Quaternion fluToFrd(const Quaternion &q); inline Quaternion fluToFrd(const Quaternion &q);
void setupPower();
void failsafe(); void failsafe();
void rcLossFailsafe(); void rcLossFailsafe();
void descend(); void descend();
-2
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@@ -73,8 +73,6 @@ public:
gyro = Vector(imu->AngularVelocity().X(), imu->AngularVelocity().Y(), imu->AngularVelocity().Z()); gyro = Vector(imu->AngularVelocity().X(), imu->AngularVelocity().Y(), imu->AngularVelocity().Z());
acc = this->accFilter.update(Vector(imu->LinearAcceleration().X(), imu->LinearAcceleration().Y(), imu->LinearAcceleration().Z())); acc = this->accFilter.update(Vector(imu->LinearAcceleration().X(), imu->LinearAcceleration().Y(), imu->LinearAcceleration().Z()));
voltage = 4.2f; // dummy voltage value
readRC(); readRC();
estimate(); estimate();
+1 -6
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@@ -11,12 +11,7 @@
#include <sys/poll.h> #include <sys/poll.h>
#include <gazebo/gazebo.hh> #include <gazebo/gazebo.hh>
// Mocks int wifiMode = 1; // mock
int wifiMode = 1;
int wifiLongRange = 0;
// int espnowChannel = 6;
const int W_DISABLED = 0, W_AP = 1, W_STA = 2, W_ESPNOW = 3;
int udpLocalPort = 14580; int udpLocalPort = 14580;
int udpRemotePort = 14550; int udpRemotePort = 14550;
const char *udpRemoteIP = "255.255.255.255"; const char *udpRemoteIP = "255.255.255.255";
-3
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@@ -1,3 +0,0 @@
# ESPNOW-proxy
Proxy sketch for using ESP-NOW connection with Flix drone.
-88
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@@ -1,88 +0,0 @@
// Copyright (c) 2026 Oleg Kalachev <okalachev@gmail.com>
// Repository: https://github.com/okalachev/flix
// Proxy for ESP-NOW connection
#include <vector>
#include <WiFi.h>
#include <ESP32_NOW_Serial.h>
#include <MacAddress.h>
#include <MAVLink.h>
#include <Preferences.h>
#include "../../flix/util.h"
const int CHANNEL = 6;
char key[ESP_NOW_KEY_LEN + 1] = {0}; // with trailing null
Preferences storage;
std::vector<ESPNOWSerial *> peers;
void onNewPeer(const esp_now_recv_info_t *info, const uint8_t *data, int len, void *arg) {
if (len != 4 || memcmp(data, "flix", 4) != 0) return; // check if discovery message
Serial.printf("New peer: " MACSTR "\n", MAC2STR(info->src_addr));
ESPNOWSerial *link = new ESPNOWSerial(info->src_addr, CHANNEL, WIFI_IF_AP);
link->begin();
link->setKey((const uint8_t *)key);
peers.push_back(link);
}
void setup() {
Serial.begin(115200);
WiFi.mode(WIFI_AP);
WiFi.setSleep(false);
WiFi.setChannel(CHANNEL);
ESP_NOW.onNewPeer(onNewPeer, NULL);
ESP_NOW.begin();
storage.begin("espnow-proxy");
if (!storage.isKey("key")) {
generateRandomKey();
storage.putString("key", key);
}
strcpy(key, storage.getString("key").c_str());
// Discover the first peer
while (peers.empty()) {
Serial.printf("espnow %s %s\n", WiFi.softAPmacAddress().c_str(), key);
delay(500);
}
}
void generateRandomKey() {
const char chars[] = "ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz0123456789!@#$%^&*-_+=";
for (int i = 0; i < ESP_NOW_KEY_LEN; i++) {
key[i] = chars[random(0, strlen(chars))];
}
}
void loop() {
uint8_t buf[5000];
// Send from Serial to ESP-NOW
while (Serial.available() > 0) {
int b = Serial.read();
if (b < 0) {
break;
}
mavlink_message_t msg;
mavlink_status_t status;
if (mavlink_parse_char(MAVLINK_COMM_0, (uint8_t)b, &msg, &status)) {
int len = mavlink_msg_to_send_buffer(buf, &msg);
for (ESPNOWSerial *link : peers) {
link->write(buf, len);
}
}
}
// Send from ESP-NOW to Serial
for (ESPNOWSerial *link : peers) {
int len = link->read(buf, sizeof(buf));
if (len > 0) {
Serial.write(buf, len);
}
}
}
+1 -1
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@@ -37,7 +37,7 @@ print(flix.connected) # True if connected to the drone
print(flix.mode) # current flight mode (str) print(flix.mode) # current flight mode (str)
print(flix.armed) # True if the drone is armed print(flix.armed) # True if the drone is armed
print(flix.landed) # True if the drone is landed print(flix.landed) # True if the drone is landed
print(flix.voltage) # battery voltage (NaN - unknown, ~0 - USB powered) print(flix.voltage) # battery voltage
print(flix.attitude) # attitude quaternion [w, x, y, z] print(flix.attitude) # attitude quaternion [w, x, y, z]
print(flix.attitude_euler) # attitude as Euler angles [roll, pitch, yaw] print(flix.attitude_euler) # attitude as Euler angles [roll, pitch, yaw]
print(flix.rates) # angular rates [roll_rate, pitch_rate, yaw_rate] print(flix.rates) # angular rates [roll_rate, pitch_rate, yaw_rate]
+1 -2
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@@ -5,7 +5,6 @@
import os import os
import time import time
import math
from queue import Queue, Empty from queue import Queue, Empty
from typing import Optional, Callable, List, Dict, Any, Union, Sequence from typing import Optional, Callable, List, Dict, Any, Union, Sequence
import logging import logging
@@ -27,7 +26,7 @@ class Flix:
mode: str = '' mode: str = ''
armed: bool = False armed: bool = False
landed: bool = False landed: bool = False
voltage: float = math.nan voltage: float = 0
attitude: List[float] attitude: List[float]
attitude_euler: List[float] # roll, pitch, yaw attitude_euler: List[float] # roll, pitch, yaw
rates: List[float] rates: List[float]
+1 -1
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@@ -1,6 +1,6 @@
[project] [project]
name = "pyflix" name = "pyflix"
version = "0.15" version = "0.14"
description = "Python API for Flix drone" description = "Python API for Flix drone"
authors = [{ name="Oleg Kalachev", email="okalachev@gmail.com" }] authors = [{ name="Oleg Kalachev", email="okalachev@gmail.com" }]
license = "MIT" license = "MIT"