Thank you for sending your enquiry! One of our team members will contact you shortly.
Thank you for sending your booking! One of our team members will contact you shortly.
Course Outline
Introduction to ArduPilot
- Overview of the ArduPilot ecosystem and its applications for government
- Supported vehicles and platforms, including drones, rovers, and boats
- Comparison with PX4 and other autopilot systems
Setting Up the Development Environment
- Installing ArduPilot build tools on Linux for government use
- Compiling the source code for efficient integration
- Exploring ArduPilot configuration files to ensure compliance with public sector standards
Simulation and Testing with SITL
- Running Software In The Loop (SITL) for initial testing
- Connecting SITL to MAVProxy and Mission Planner for comprehensive evaluation
- Integrating with Gazebo for physics-based simulation to enhance realism
Drone Programming Essentials
- Overview of the MAVLink communication protocol for secure data exchange
- Using the DroneKit Python API for UAV control in government operations
- Writing simple scripts for takeoff, navigation, and landing to streamline mission execution
Working with Hardware and Sensors
- Supported flight controllers, such as Pixhawk and Cube, optimized for government use
- Integrating GPS, IMU, and cameras to enhance situational awareness
- Calibrating sensors and configuring parameters to ensure accuracy and reliability
Autonomous Missions
- Designing waypoint-based missions for efficient task completion
- Implementing failsafes, geofencing, and return-to-launch (RTL) to ensure safety and compliance
- Conducting real-world testing with a focus on flight safety considerations
Extending ArduPilot with ROS2
- Connecting ArduPilot to ROS2 via MAVROS for enhanced functionality
- Building autonomy using ROS2 nodes to support complex mission requirements
- Integrating AI and computer vision for advanced UAV behaviors tailored to government needs
Troubleshooting and Optimization
- Debugging with SITL logs and telemetry data to identify issues
- Analyzing flight data logs to improve performance and reliability
- Performance tuning for stability and efficiency in government operations
Summary and Next Steps
Requirements
- Familiarity with the Linux command line
- Programming experience in Python or C++
- Fundamental knowledge of robotics or drone flight principles
Audience for Government
- Developers
- Robotics Engineers
- Technical Researchers Focused on UAV Development
14 Hours