The knowledge is there. What’s missing is the confidence to act.
Many training programmes separate system theory, simulation and real hardware. This is precisely where uncertainty, operating errors and material risks arise.
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UAV learning system for drone training
From technical design to in-flight operation
With PanelTrain UAV, trainees learn how to assemble, wire, configure and control a drone. They work with real components, test different types of drones in simulation and systematically diagnose faults.
Where UAV training often falls short today
There is often a crucial step missing between theory and real-world application.
Real components, controlled environment.
Flight controllers, ESCs, sensors, telemetry and encapsulated drives become tangible, without transferring the first mistake to free flight.
Trainees make safe decisions.
Pre-flight checks, failsafes, log file analysis and go/no-go clearance transform operational knowledge into reliable practical competence.
Theory without system penetration
Simulation without real avionics
First flight with a high material risk
Choosing a platform without understanding the mission
The result: a lack of routine in set-up, calibration, fault diagnosis and go/no-go decisions.
Our solution: Making UAV technology visible and understandable
System Architecture
All key UAV components at a glance.
SYSTEM COMPONENTS
Everything required for setup, control and diagnostics.
Avionics
Cube Orange, ArduPilot, redundant IMU
Communication
ELRS, MAVLink, CAN, I2C, PWM, DShot
Actuators
BLDC, ESC, servos, enclosed rotors
Diagnostics
Multimeter, pre-arm checks, dataflash logs, firmware
Learning
RXLea projects and complete action-oriented learning
Real components, visible data flows, guided decisions.
The modular training system is based on PanelTrain. Flight controllers, ESCs, sealed motors, GPS/GNSS, IMU, telemetry and power distribution become visible, measurable and systematically configurable.
Learning path
Scrolling becomes a learning mission
Six Projects. One Mission.
System Integration
Identify components, read circuit diagrams and set up the complete UAV signal path.
Sensors
Calibrate the IMU, compass, barometer and GPS/GNSS and assess signal quality.
Actuators
Validate motors, ESCs, servos and platform configurations in the software.
Remote Control
Connect ELRS, assign channels, configure flight modes and test the failsafe.
Flight Simulation
Safely test multicopter, fixed-wing and VTOL aircraft using a physical remote control.
Troubleshooting
Document readiness checks, measurements, log analysis and the go/no-go decision.
1. Understand the UAV system
Assemble UAV components, read circuit diagrams and wire the system fully.
2. Calibrate the sensors
Set up, check and assess the IMU, compass, barometer and GPS/GNSS for initial operation.
3. Actuators & Remote Control
Configure ESCs, motors, servos, ELRS/EdgeTX, flight modes and failsafe routines.
4. Simulation & Diagnosis
Combining flight training, pre-flight checks, Dataflash log files and go/no-go decisions.
One system, four platforms.
Four UAV platforms. One learning system.
Multicopter
Compare precise control, hovering, attitude stabilization and rotor systems directly.
Fixed Wing
Understand efficiency, propulsion, aerodynamic flight phases and pusher propulsion.
Flying Wing
Explore reduced mechanics, a different control logic and clear platform differences.
VTOL
Combine hovering and aerodynamic forward flight within one complex system.
Set up
Understanding flight controllers, ESCs, motors, GPS/GNSS and telemetry as a system.
Calibrate
Configure sensors, rudder servos, flight modes and communication interfaces correctly.
Approve
Translate pre-flight checks, measurements and log file analysis into professional decisions.
In practice
Your benefits
Comprehensive UAV training in a single system
From UAV system theory through sensor technology, actuator technology and remote control to flight simulation and fault diagnosis.
Work assignments rather than lectures
Learners work on real-world tasks from the drone industry and develop practical skills.
Four UAV platforms in a single system
Configure, test and compare quadcopters, fixed-wing aircraft, flying wings and VTOLs using a single piece of hardware.
Flight simulation with physical remote control
Use the RadioMaster remote control to safely operate various UAV configurations in the simulation.
Systematic fault diagnosis
Check and rectify readiness checks, multimeter measurements, log file analysis and firmware errors in a targeted manner.
UAV expertise
From development to launch approval
Learners combine mechanics, electrical systems, avionics, remote control, flight software and diagnostics into a coherent system. This fosters practical skills rather than mere knowledge of individual components.
Practical skills are developed through real-world experience.
Making flight mechanics visible
Real-world signals. Reliable simulation.
The secure laboratory setup allows control commands, flight attitude, sensor readings and telemetry to be verified before a real UAV is put into live operation.
Typical areas of application
Where the UAV system is particularly well suited
Vocational schools & technical colleges
Teach the basics of drone technology step by step. Learners work on assembly, sensor technology, control systems and safe commissioning.
Suitable for lessons, project work and independent practice.
Vocational colleges and universities
Investigate avionics, flight mechanics, communications and fault diagnosis using real components.
Four UAV platforms can be configured, tested and directly compared with one another.
Industrial and government training centres
Train specialists in inspection, logistics, safety applications and technical operations planning.
Set-up, simulation and diagnostics can be practised safely in a controlled learning environment.
4UAV configurations
6 projects managed
230 V laboratory connection
USB PC/GCS connection
RXLeadigital learning guide
Make UAV training visible, measurable and safe.
We’ll work with you to identify which modules, extensions and learning projects are best suited to your training objectives.
Four platform types in one system
Genuine avionics with reliable actuators
RXLea projects for guided skills development
From training objectives to the right UAV laboratory
Talk to us about your target audience, room layout, module scope and digital learning guidance.
No-obligation • Detailed equipment planning • Practical UAV-related content
KNOWLEDGE TURNS INTO SKILL
Real Experience Learning with RXLea
RXLea
The digital learning world leads the way to your goal
RXLea provides learning content and tasks, guides learners through each step and records results. Learners know what to do, whilst teachers keep track of the structure and progress.
Clear guidance through the learning process via tasks
Less preparation for teachers
Progress and results at a glance
Real-Life Learning
Learning through real-world experience
Your students work directly with real UAV components, assemble the system, calibrate sensors, configure the remote control and diagnose faults. Knowledge is applied and tested.
Real hardware rather than simulation
Real-world work assignments
Understanding through measurement, testing and decision-making
