Hybrid Drone-Bot Control System

An innovative graduation project featuring both aerial and ground vehicles with AruCo marker recognition, autonomous navigation, and intelligent command processing for coordinated multi-platform operations.

About the Project

Developing a hybrid autonomous system combining aerial drone and ground robot with AruCo marker recognition and intelligent command processing

Dual Platform System

Integrated aerial drone and ground robot working in coordination, each capable of autonomous navigation and task execution with seamless communication between platforms.

AruCo Marker Recognition

Advanced computer vision system capable of detecting, identifying, and processing AruCo markers for navigation commands, positioning, and task coordination.

Intelligent Command Processing

Real-time command interpretation system that processes visual markers and executes movement commands like forward, backward, turn, and complex maneuvers.

System Specifications

Drone Processing Unit Raspberry Pi 3B+
Bot Processing Unit Jetson Nano 2GB
Drone Flight Time 30 minutes
Bot Operation Time 2 hours
Communication Range 10m
Marker Detection Range 2m

Meet Our Team

The dedicated three-person team behind this innovative hybrid drone-bot system and our supervisor.

Profile Photo

Özgür ERKENT

Project Supervisor

Served as the academic supervisor of the project, providing guidance on system architecture, integration strategies, and research methodology. Ensured the project's alignment with academic standards and supported the team through all development phases.

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Berkehan ORHON

Team Member

Expert in computer vision and image processing. Developed the AruCo marker detection system and command interpretation algorithms for both drone and ground robot platforms.

OpenCV Computer Vision AruCo Image Processing
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Buğra TEKTEPE

Team Member

Specialized in software development and system integration. Played a key role in merging drone hardware components with control software, ensuring seamless operation. Contributed to the development of autonomous behavior logic and inter-platform coordination.

Robotics Arduino Hardware Design Communication Systems
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Eda YÜCE

Team Member

Focused on the development of the wheeled ground robot, primarily handling its software systems. Responsible for implementing motion control, sensor integration, and communication interfaces. Contributed to building a reliable and responsive ground navigation system.

Robotics Arduino Hardware Design Communication Systems

Project Outcomes

Explore our research findings, demonstrations, and downloadable resources from the hybrid drone-bot system

Research Poster

Comprehensive visual presentation of our hybrid drone-bot system methodology, AruCo marker integration, and experimental results.

Hybrid System Poster Preview
Download as JPG

Demo Video

Watch both drone and ground robot in action demonstrating AruCo marker recognition, command processing, and coordinated autonomous operations.

Watch on YouTube

Source Code

Complete source code repository including drone control, ground robot systems, AruCo detection algorithms, and command processing modules.

12,000+ Lines of Code
Python, C++ Languages

Project Photos

Visual documentation of our hybrid drone-bot system development process, testing phases, and final demonstrations showcasing both platforms in action.

Get in Touch

Have questions about our hybrid drone-bot project? Want to collaborate or learn more about our AruCo marker system and autonomous coordination research? We'd love to hear from you.

Email

hacettepeliadimopter@gmail.com

University

Hacettepe University Computer Science Department

Project Timeline

Research & Planning

September 2024

Hardware Design & Assembly

October 2024 - January 2025

AruCo Based System Development

January 2025 - March 2025

Platform Integrations

April 2025

Testing & Validation

May 2025

Documentation & Presentation

June 2025