NASA Develops Scandium Oxide Material to Withstand 2,900F Lunar Regolith, Cutting Moon Base Costs
Updated
Updated · businesstoday.co.ke · May 31
NASA Develops Scandium Oxide Material to Withstand 2,900F Lunar Regolith, Cutting Moon Base Costs
3 articles · Updated · businesstoday.co.ke · May 31
NASA Glenn researchers developed and tested a scandium oxide-based material that resists corrosion from molten lunar regolith at more than 2,900 degrees Fahrenheit, a key hurdle in turning Moon dust into usable resources.
Laboratory results showed the material held up under extraction conditions while being lighter, less dense and better insulated than current high-temperature coatings, offering a cheaper alternative to platinum-based materials.
NASA says the substance could be used in pipes, basins and containment vessels for future lunar systems designed to process regolith into metals, construction inputs and manufacturing feedstock.
The work supports Artemis plans for longer-term lunar operations by reducing the need to ship supplies from Earth, though researchers are still refining the material's purity and production cost before any deployment timeline is set.
Can a sustainable lunar future be built using scandium, a metal rarer and more expensive than silver?
As building on the Moon becomes possible, what rules will prevent a chaotic and dangerous lunar resource rush?
From Moon Bases to Jet Engines: NASA’s 2026 Scandium Oxide Material Breakthrough for High-Temperature, Corrosive Environments
Overview
NASA researchers have developed a novel scandium oxide-based material that offers unprecedented resistance to high temperatures and corrosive substances, directly addressing a major challenge for future space exploration and industrial processes. This breakthrough is especially important for building sustainable lunar infrastructure, as lunar regolith is highly corrosive and quickly degrades most heat-resistant materials. The new material is unique in that it starts as a pink powder and changes color to beige when its reaction is complete, providing a clear visual indicator during processing. This innovation paves the way for safer, more efficient operations in extreme environments like the Moon.