Under the Microscope: NASA-Made Material for Moon Manufacturing
NASA developed a biodegradable material using simulated Moon and Mars dust that could enable on-site manufacturing and repairs during future missions, reducing launch weight and costs.
NASA’s Glenn Research Center in Cleveland created a new material designed for manufacturing on the Moon or Mars, reducing the need to transport supplies from Earth. The material combines a biodegradable plastic with simulated lunar and Martian dust, enhancing strength and processability. Researchers mixed the plastic with dust to adjust the material’s properties for different applications, such as structural components or tools. The team included chemical engineer Allison Christy and summer interns Tyler Klinchuch, Ethan Bilodeau, and Emma Levenson, who contributed to the project’s development.
The material’s versatility allows for on-demand fabrication of equipment like brackets, wrenches, or furniture using local resources, supporting NASA’s goal of a sustainable Moon base. By enabling crews to build and repair tools on-site, the approach reduces resupply missions and launch costs. Christy emphasized the importance of adaptability, stating that future missions cannot rely solely on supplies brought from Earth. The team is now exploring whether the material can withstand external conditions on the lunar or Martian surface.
Testing is underway at NASA Glenn’s Lunar Environment Structural Test Rig to evaluate the material’s performance in extreme temperatures. Samples are also scheduled for exposure to space conditions during the Materials International Space Station Experiment 23 (MISSE-23) mission. These tests aim to assess durability and structural integrity in the harsh environments of space. The research is supported by NASA Glenn’s 2026 Center Innovation Fund, managed by the Research and Technology Mission Directorate.
The material’s development highlights NASA’s focus on sustainable, in-situ resource utilization for long-duration missions. By leveraging biodegradable plastics and local dust, the innovation could reduce dependency on Earth-based supply chains. The team’s work underscores the potential for future astronauts to manufacture essential items directly on planetary surfaces, advancing the feasibility of permanent lunar and Martian habitats.