Cutting-Edge: 3D-Printable High-Temperature Superalloy

NASA’s commitment to innovation in materials science has led to a groundbreaking development in the form of a superalloy designed to withstand the extreme conditions of air and spaceflight. This investment is now poised to yield significant commercial benefits, marking a milestone in the agency's efforts to transfer technology to the private sector.

The superalloy, known as “GRX-810,” has been specifically engineered for high-temperature applications and harsh environments, making it a game-changer in the aerospace industry. NASA has taken the strategic decision to license this invention to four American companies, a move that not only promotes technological advancement but also contributes to the growth of the U.S. economy.

GRX-810's key feature lies in its 3D-printable nature, allowing for the production of components that are not only stronger but also more durable than traditional materials. This enhanced resilience means that airplane and spacecraft parts made from GRX-810 can endure greater stress and strain before reaching their structural limits, ensuring enhanced safety and reliability in flight operations.

Through co-exclusive license agreements with the selected companies, NASA is enabling them to manufacture and market GRX-810 to a wide range of customers, including airplane and rocket equipment manufacturers, as well as suppliers across the industry. This collaborative approach not only facilitates the widespread adoption of the superalloy but also fosters a culture of innovation and partnership within the aerospace sector.

GRX-810 serves as a prime example of the cutting-edge technologies that NASA's Technology Transfer Program is actively promoting. By identifying promising inventions and securing patent protection, the agency is paving the way for these innovations to make a tangible impact in the commercial market. Working closely with inventors and industry partners, NASA is dedicated to ensuring that breakthrough technologies like GRX-810 reach their full potential and benefit society as a whole.