
Assemble the UAV fuselage by fitting core parts, securing joints with glue, and preparing slots for the wing, the battery, and the nose hatch magnets.
Learn to use a servo tester to install and test servos for a fixed-wing uav, wiring from the esc to the tester and cycling through manual, neutral, and automatic modes.
Assemble the wing by inserting the carbon tube, joining halves with hot glue, inserting carbon sheets, bonding W-1 and W-2 for strength, and mounting servos tested with a servo tester.
Master tail section assembly for a fixed-wing UAV by mounting tail booms, seating and centering servos, aligning parts with plywood, and bonding under the wing before securing the covers.
Assemble the control linkages and horns, attach to wing and tail servos, and connect to control surfaces; route cables with hot glue and label servo connections.
Attach the motor base, route cables into the fuselage, secure the motor with four screws, install the propeller with its adapter in a forward pusher configuration, and connect the esc.
Bind the transmitter to the receiver, connect the ESC to the receiver with a LiPo battery, then enable switch C on channel five and save in function setup for Ardupilot.
Install and secure the UAV avionics, including the Pixhawk flight controller, GPS, telemetry, battery monitor, and radio receiver, with proper mounting, cabling, and test connections.
Learn to install mission planner, upload Ardupilot firmware, and configure telemetry drivers to connect your fixed-wing UAV, test with software-in-the-loop simulation, and prepare for auto missions.
Master Ardupilot software setup for your first fixed-wing UAV flight by configuring Mission Planner, calibrating accelerometer, compass, radio, servos, and flight modes; tune telemetry and power settings.
Learn to install and update the Phoenix RC flight simulator, calibrate and configure your transmitter, and practice RC plane training to build real fixed-wing UAV flight skills.
Learn to safely charge a three-cell LiPo by wiring the charger, connecting the XT60 and balance ports, selecting LiPo, and using balance charging for cell accuracy.
Perform pre-flight checks by verifying the center of gravity at 75 mm from the leading edge, marking balance points, inspecting the airframe, testing control surfaces, and confirming a charged battery.
Embark on your fixed-wing UAV's maiden flight with GPS lock and compass calibration in stabilize mode. Then tune ArduPilot parameters for smoother control and safer landings.
Create and upload your first autonomous waypoint mission with Mission Planner, placing four waypoints and defining coordinates, altitude, and waypoint commands for a fully autonomous uav path.
Install a pitot tube and lidar to improve airspeed measurement and auto landings, then balance the center of gravity and enable the digital airspeed sensor in Mission Planner.
Enable airspeed auto cal and set Ares pdus to zero, then perform a calm five-minute loiter with mission planner to derive the airspeed ratio between 1.5 and 3.
Learn how to configure ArduPilot for autonomous landings, calibrate landing speed using flight logs and airspeed data, tune flare and descent parameters, and validate LiDAR-assisted touchdown.
Explore Ardupilot's automatic landing with a six-waypoint mission, glide slope, and flare for a smooth autonomous touchdown. Tune bank angle and glide slope to improve precision under auto mission.
Build and Fly Your Own Fixed-Wing UAV - From Assembly to Full Autonomy
Are you ready to build and fly your own autonomous fixed-wing UAV?
This beginner-friendly course takes you step-by-step through the entire process - from assembling your aircraft to performing fully autonomous missions using ArduPilot and Mission Planner.
All the parts you need are available in one place - visit our store to easily find every component featured in the course.
You’ll start by assembling a foam fixed-wing plane and installing key components like the Pixhawk flight controller, GPS, telemetry, power system, and servos. Each step is explained clearly, so no prior experience is required. You’ll also learn how to position and wire everything neatly inside the fuselage for a clean and reliable setup.
Once your UAV is built, you’ll move on to the software configuration - calibrating sensors, setting up radio controls, assigning flight modes, and configuring safety features. You’ll also learn how to monitor voltage and current to ensure your UAV flies safely and efficiently.
Next, you’ll explore FPV (First Person View) setup and then dive deep into autonomous flight - from auto takeoff, waypoint navigation, and auto landing, to advanced mission planning. Each concept is demonstrated in detail, making it easy to understand and apply.
By the end of the course, you’ll not only be able to fly your UAV manually but also perform fully automated missions with confidence and precision.