3MT

• What is the beginning of your research? (your hook and context)

• What is the middle of your research? (what you’re doing and why it matters)

• What is the end of your research? (what you hope to achieve)

  Hook Imagine a future where a single fragment of metal, no larger than a coin, destroys an operational satellite. Now consider that there are over 36,000 of these fragments currently orbiting Earth, traveling at speeds exceeding 25,000 km/h. This is the reality of space debris, and it represents a growing threat to the infrastructure we rely on daily.

Problem
From telecommunications to navigation and Earth observation, our dependence on satellite services is increasing. At the same time, uncontrolled debris accumulation raises the risk of collisions, which generate even more fragments—accelerating a chain reaction known as the Kessler Syndrome. Without effective mitigation and removal strategies, critical orbits could become too hazardous for future operations.

Solution
In my research, I focus on evaluating the potential of inflatable robotic arms for capturing space debris. These systems offer a lightweight and scalable alternative to traditional rigid mechanisms, with the flexibility to safely interact with irregular and fragile objects. Through numerical simulations and physical prototyping under relevant conditions, my work aims to assess the feasibility and performance of these structures, providing data to support their future use in active debris removal.

Impact
While this research is at the proof-of-concept stage, understanding the capabilities and limitations of inflatable systems is essential for guiding future orbital servicing missions. By validating these technologies early, we can inform the design of scalable solutions that contribute to long-term space sustainability.

Closing Addressing space debris requires both innovative concepts and realistic validation. Through targeted testing and simulation, we can take critical steps toward protecting the future of space operations.