Researchers Develop Unsinkable Metal Tubes with Superhydrophobic Design

Researchers Develop Unsinkable Metal Tubes with Superhydrophobic Design

On February 4, 2026, researchers at the University of Rochester developed aluminum tubes with a superhydrophobic surface that allows them to remain buoyant even when punctured or submerged. This innovation involves engineering the tubes to trap air, preventing them from sinking despite damage. The technology was demonstrated under harsh conditions, showcasing the tubes' resilience.

The development has potential applications in creating more durable floating maritime structures and in renewable energy harvesting. Key contributors include Professor Chunlei Guo and support from organizations such as the National Science Foundation, the Bill and Melinda Gates Foundation, and the Goergen Institute for Data Science and Artificial Intelligence. This advancement could lead to significant improvements in maritime engineering and energy technologies.

Actors

University of Rochester Professor Chunlei Guo National Science Foundation Bill and Melinda Gates Foundation Goergen Institute for Data Science and Artificial Intelligence

Locations

University of Rochester

Articles

February 04, 2026
2 total
Researchers Develop Unsinkable Metal Tubes with Superhydrophobic Design
Researchers Develop Unsinkable Metal Tubes with Superhydrophobic Design

futurity.org • 04 Feb 16:29

Scientists at the University of Rochester have engineered aluminum tubes that remain buoyant even when damaged, potentially leading to more resilient maritime structures and renewable energy applications.

Credibility 90% Manip. 5% Center
Researchers Develop Unsinkable Aluminum Tubes Using Superhydrophobic Technology
Researchers Develop Unsinkable Aluminum Tubes Using Superhydrophobic Technology

ZME Science • 04 Feb 10:23

Scientists at the University of Rochester have engineered aluminum tubes that remain buoyant even when punctured or submerged, by creating superhydrophobic surfaces that trap air.

Credibility 87% Manip. 8% Center