MathWorks Global Student Drone Challenge 2025

Competition: MathWorks Global Student Drone Challenge
Result: 3rd Place (2025)

This project develops an autonomous drone navigation system for the MathWorks Global Student Drone Challenge, implementing advanced vision-based control algorithms for precise flight path optimization and autonomous landing capabilities.

Project Overview

The research focuses on developing a comprehensive autonomous navigation solution for Parrot Mambo drones, combining computer vision techniques with advanced control systems to achieve optimal performance in competitive drone racing environments.

Key Achievements

Vision-Based Control Implementation: Programmed sophisticated vision-based control algorithms for Parrot Mambo using dynamic masking techniques, ray-tracing algorithms, and closed-loop yaw control for precise navigation and obstacle avoidance.

Adaptive Flight Optimization: Integrated intelligent speed variation algorithms and zone-based automatic landing systems to minimize track completion time while maintaining flight stability and safety.

Competition Performance: Developed and tested the complete autonomous navigation stack within the competitive timeframe, demonstrating reliable performance in challenging flight scenarios.

Technical Stack

Development Environment: MATLAB, Simulink

Ritabrata Chakraborty
Ritabrata Chakraborty
CV Research Intern

Research Engineer specializing in robotics, computer vision, and autonomous systems. Currently developing automated data annotation solutions with foundation models for autonomous vehicles at Uber.

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