ReefRanger

Abstract

In the ReefRanger Focus Project, students develop an underwater robot to support coral reef restoration. The project combines theoretical knowledge with practical application, focusing on robotics, marine conservation, and sustainability. Students tackle complex challenges, analyze systems, and use their engineering tools to build a robot that automates labor-intensive tasks efficiently.

Objective

By the end of this Focus Project, students will be able to: 1. Design and Develop an Autonomous Underwater Robot • Apply interdisciplinary engineering principles to create a robot tailored for coral reef restoration. • Address challenges specific to underwater robotics, including waterproofing, buoyancy control, and navigation. • Implement soft interaction mechanisms to safely engage with delicate coral structures. 2. Implement AI-Powered Autonomy for Environmental Tasks • Develop algorithms enabling the robot to autonomously perform tasks such as feeding coral reefs, removing algae from nursery structures, and administering probiotics to corals. • Integrate sensors and actuators to facilitate real-time decision-making and adaptability in dynamic underwater environments. 3. Contribute to Scalable Coral Restoration Solutions • Design robotic systems that can be scaled to support large-scale coral restoration efforts. • Collaborate with marine biologists and conservationists to ensure the robot meets ecological and operational requirements. 4. Enhance Teamwork and Project Management Skills • Work effectively in a multidisciplinary team, managing project timelines and deliverables. • Communicate progress and challenges through presentations and technical documentation. • Engage with sponsors and partners to align project goals with real-world applications.

Content

The ReefRanger Focus Project encompasses the following phases: 1. Project Initiation and Research • Understanding the ecological importance of coral reefs and current restoration techniques. • Defining project objectives aligned with enhancing coral restoration through robotics. 2. Conceptual Design and Planning • Brainstorming and selecting feasible robotic solutions for identified tasks. • Planning system architecture, including mechanical design, electronics, and software integration. 3. Development and Prototyping • Building and assembling the robot using appropriate materials and fabrication techniques. • Developing control algorithms and integrating AI components for autonomous operation. 4. Testing and Iteration • Conducting tests in controlled environments to evaluate performance. • Iterating on design and functionality based on test outcomes to ensure reliability and safety. 5. Deployment and Evaluation • Simulating real-world deployment scenarios to assess effectiveness in coral restoration tasks. • Gathering data to evaluate the robot’s impact and identify areas for improvement. 6. Final Presentation and Reporting • Documenting the project development process, outcomes, and lessons learned. • Presenting findings to stakeholders, including academic peers and industry partners.

Resources