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What happens when programming stops being something abstract on a screen and becomes the code that makes a drone take off, navigate an obstacle course, or complete an autonomous mission without human intervention? That is exactly what the <strong>Aerial Drone Competition</strong> proposes: one of the most exciting and challenging student competitions in the world, bringing together high school, technical institute, and university teams to demonstrate their flying, teamwork, and programming skills.

The competition has a global reach and grows every year, incorporating institutions at every educational level under the same premise: drones are the laboratory of the 21st century. It is not just about making a device fly — it is about designing strategies, programming autonomous behaviors, coordinating teams, and applying concepts from physics, mathematics, and computer science in real time, under the pressure of competition.

3
Competition categories: Pilot, Team, and Autonomous
3
Educational levels: high school, technical schools, and universities
2026
November 4 — Centro Espacial de Chile

Three categories, one mission: putting the full range of talent to the test

What sets the Aerial Drone Competition apart from other STEM initiatives is its three-category structure, each designed to evaluate a different aspect of the robotics and programming student's profile. A high-performing team does not just need good pilots — it needs good programmers, good strategists, and good communication.

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Pilot Competition

Manual drone control with precision, speed, and skill. Pilots must navigate circuits, complete specific maneuvers, and demonstrate mastery of real-time flight control.

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Team Competition

Collaborative challenges where success depends on the coordination of the entire team. Combines flight, strategy, and teamwork to complete missions no single pilot could achieve alone.

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Autonomous Competition

The ultimate programming challenge: the drone must complete its mission with no human control in real time. Students program the entire flight sequence in Python or Scratch — the code is the only pilot.

The autonomous category is the one that demands the most computational thinking. Students must anticipate every variable — the position of obstacles, sensor tolerances, the sequence of maneuvers — and translate it into precise code instructions.

The autonomous competition forces students to think like systems engineers: it is not enough to know how to program — you must understand the drone's sensors, the hardware's error margins, and how code interacts with the physical world.

CoDrone EDU: the educational drone built to compete and learn

The central vehicle of the competition is the CoDrone EDU by Robolink — one of the most robust and versatile educational drones on the market. It was designed specifically for the classroom and competition, with a sensor suite that enables both precise manual flight and advanced autonomous programming.

CoDrone EDU — drone educativo programable por Robolink

CoDrone EDU Sensors

What makes the CoDrone EDU suitable for autonomous competition is its integrated sensor set. Each sensor plays a specific role in flight and can be read and controlled directly from the student's code:

Gyroscope (3-axis)
Measures angular rotation on the X, Y, and Z axes. Allows the drone — and the code — to know exactly how it is oriented in the air and maintain flight stability.
Accelerometer (3-axis)
Detects linear acceleration on all three axes. Works alongside the gyroscope to calculate movement, tilt, and displacement speed.
Barometer
Measures atmospheric pressure to estimate the drone's altitude. Essential for maintaining a constant height in autonomous flight without pilot intervention.
Ultrasonic Sensor
Emits sound pulses and measures the return time to calculate distance from the ground. Allows the drone to maintain precise height above the surface.
Optical Flow Sensor
Works like a downward-facing optical mouse: detects the drone's horizontal movement relative to the ground, enabling stable stationary hover and controlled displacement.
IR Sensors
Infrared sensors for proximity detection and drone-to-drone communication. In team competitions, they allow multiple CoDrone EDUs to coordinate maneuvers without colliding.

This sensor suite does not just ensure stable flight — it is a physics and programming curriculum embedded in the hardware. When programming the CoDrone EDU, students work directly with concepts of flight dynamics, control systems, sensor feedback, and conditional logic.

The CoDrone EDU is programmed in Python or Scratch, making it accessible from high school through university. Beginners start with visual blocks in Scratch; advanced teams harness the power of Python to develop sophisticated autonomous flight algorithms.

The competition in action

The following video shows the dynamics of the international aerial drone competition: teams in action, flight categories, the energy of the event, and the technical level reached by high school, technical, and university students:

Who participates? All levels, one shared challenge

One of the most powerful features of the competition is that it is designed to be inclusive across educational levels. Teams compete in categories matched to their stage of training.

For teachers and technical program coordinators, the competition is a powerful pedagogical tool: it sets a concrete and exciting goal at the end of a learning process.

The skills the competition develops

The aerial drone competition is a multidisciplinary learning vector. Throughout the preparation and participation process, students develop competencies in areas far beyond robotics:

Technology and aerospace employers look for exactly these skills: programmers who understand hardware, engineers who can work as a team, and problem-solvers who do not freeze when something fails.

The Aerial Drone Competition comes to Chile on November 4, 2026 — and Districalc is the organizer

Districalc, a distributor of educational technologies present in over 20 Latin American countries since 1981, officially brings the <strong>Aerial Drone Competition</strong> to Chile on Wednesday, November 4, 2026, at the Centro Espacial de Chile. As local organizer, Districalc will lead team registration, teacher training, equipment supply, and event logistics.

Chile has a growing community of educators passionate about robotics and programming, and a network of technical high schools and higher education institutions already working with STEM platforms. The arrival of this competition gives that community a concrete, global, and motivating goal for their robotics programs.

Institutions interested in participating — as competing teams, regional co-organizers, or event sponsors — can contact Districalc directly. Only a few spots are available for this inaugural competition, and the preparation process requires advance time for CoDrone EDU programming training and strategy development.

If your institution wants to be part of this first Chilean edition of the Aerial Drone Competition — Wednesday, November 4, 2026, at the Centro Espacial de Chile — contact us now. Only a few spots are available. Districalc provides the equipment, training, and technical support so your team arrives prepared on competition day.

Does your institution want to compete on November 4, 2026?

The Aerial Drone Competition comes to Chile on Wednesday, November 4, 2026, at the Centro Espacial de Chile, organized by Districalc. Only a few spots remain for this inaugural competition — contact us to register your team, learn about equipment requirements, and receive training information.

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