It is easy to find a tutorial that shows you how to fly a drone. It is harder to find one learning path that explains how the aircraft, software, airspace, and business fit together.
That is why we built the Ascend Labs Drone Curriculum.
The curriculum is a free, open-source guide to modern drone technology. It starts with first principles and grows into the wider systems around flight: hardware, software, real applications, commercial operations, regulations, and emerging autonomous technologies.
What is inside
The curriculum currently contains seven connected modules:
- Introduction — what drones are, how flight developed, the main aircraft configurations, and the wider UAV ecosystem.
- Hardware — aerodynamics, propulsion, frames, flight controllers, sensors, batteries, communications, and edge-AI hardware.
- Software — flight-control algorithms, MAVLink, ground-control software, simulation, autonomy, and AI integration.
- Use Cases — agriculture, humanitarian aid, logistics and last-mile delivery, search and rescue, defense, and entertainment.
- Commercialization — drone business models, insurance, certification, startup costs, and case studies.
- Regulations — global regulation, Kenya’s UAS framework, airspace management, geofencing, security, Remote ID, and compliance.
- The Future — urban air mobility, bio-inspired aircraft, advanced propulsion, autonomous swarms, and the road ahead.
The aim is not to make every learner an expert in all seven areas. It is to give them a map of the whole system, then let them go deeper where their interests and work take them.
Why first principles matter
Drone technology crosses several disciplines at once. A change in propeller or battery affects flight performance. Sensor quality affects control. Software decisions affect safety. Regulation changes what can be deployed, while cost and risk determine whether an idea can survive outside a demo.
Learning each topic in isolation hides those relationships.
The curriculum therefore focuses on why systems work. A learner should be able to connect lift to propulsion, sensor readings to flight control, MAVLink to a ground-control station, and an aircraft’s capability to the rules and economics around its mission.
Built as connected knowledge
The source material is written in Markdown and organized as an Obsidian vault. Lessons link to related ideas across modules, so the curriculum does not have to be read as a rigid textbook.
Someone learning MAVLink in the software module can follow its relationship to ground control, missions, and future multi-drone systems. Someone exploring medical logistics can move between aircraft capability, regulation, risk, and commercialization.
Many lessons also include visual PDF slide decks. Learners can read the detailed material, use the slides as a visual companion, or add their own notes and connections inside Obsidian.
Where MAVLab fits
The curriculum explains the system. MAVLab lets learners interact with parts of it.
After reading about telemetry, sensors, MAVLink, missions, or ground-control software, a learner can use MAVLab to see those concepts behave inside a phone-first simulator. The curriculum and simulator are separate open-source projects, but together they create a more useful path from explanation to practice.
Open for learning and contribution
The repository is published under the MIT License. Anyone can read it, clone it, open it as an Obsidian vault, teach from it, or propose improvements through GitHub.
That last part matters. Drone technology and regulation keep moving. If something needs correction, a regulation needs updating, or a case study could be stronger, the work can improve in public.
Explore the complete Drone Curriculum on GitHub
For us, the curriculum is more than a collection of lessons. It is the open starting point for the people who may build, operate, regulate, or improve the next generation of drone systems in Africa.