NASA Developed Space-Dust Plastic for Lunar Manufacturing
The research-stage material uses biodegradable plastic and simulated surface dust to enable on-site parts production.
Updated on Sept. 29, 2026 in Materials Science
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Researchers at the NASA Glenn Research Center have developed a new material combining bacterial-derived biodegradable plastic with simulated Moon and Mars dust. This material is currently in the research stage and is intended to facilitate on-site manufacturing of equipment in space.
Why it matters
By enabling the production of items like structural brackets and tools directly on the Moon or Mars, this technology aims to significantly reduce the weight of supplies shipped from Earth. This shift toward in-situ manufacturing could lower total mission costs for future long-term habitat operations.
The composite material utilizes a biodegradable plastic polymer produced by bacteria, which are fed with carbon dioxide or crew-generated waste. Researchers have demonstrated that incorporating dust particles enhances the mechanical strength and processing characteristics of the plastic.
The players
NASA Glenn Research Center
A federal research facility located in Cleveland that specializes in propulsion, communications, and power systems for aerospace applications.
The details
The development process involves feeding bacteria carbon dioxide or waste products to generate a biodegradable base polymer. Researchers then incorporate simulated Moon and Mars dust into this plastic, creating a composite material designed for potential use in manufacturing items such as structural brackets, wrenches, and furniture for extraterrestrial habitats. Testing is currently being performed in the Lunar Environment Structural Test Rig to refine the mechanical properties.
Timeline
Development is currently supported by the 2026 Center Innovation Fund.
Material samples are scheduled to launch on the upcoming MISSE-23 mission to the International Space Station.
The Tech Race
This effort aligns with broader agency goals to minimize launch mass by pivoting toward local resource utilization for space-based manufacturing. It builds upon previous research into regenerative life-support systems and in-situ resource processing to enable sustainable long-term habitation.
This development is currently in the research phase and will not impact industrial manufacturing on Earth in the immediate future. Its success will dictate the logistics of future deep-space missions, potentially allowing astronauts to print necessary tools and equipment on-site.
The takeaway
This technology represents a move toward circular, waste-based production models for extraterrestrial missions. Watch for the performance results of the samples sent on the MISSE-23 mission to confirm if the material maintains structural integrity in orbit.
What happens next
Testing of the material's viability under actual space conditions will proceed during the MISSE-23 mission, following which researchers will assess the material's structural integrity on the lunar or Martian surface.
Further reading
For more on the current frontier of space-based manufacturing and chemical engineering, visit Materials Science.
Source note: This article includes information reported by NASA.
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