Digital Engineering 24/7

Helping design and engineering professionals discover, evaluate and specify technologies and processes that shorten the design cycle and enable success.

Moon Rocks Could Fuel 3D Printers

Moon Rocks Could Fuel 3D Printers
WSU used a lunar rock simulant to build these tubes with AM. Courtesy of WSU.

Latest Additive Manufacturing News

Latest Additive Manufacturing Resources

  • Digital Engineering April 2026

    In the latest issue of Digital Engineering, we take a look at the latest innovations in design for additive manufacturing, including the use of natural language inputs, social media cosplayers, and AI integration. The issue also includes a feature…

  • January Special Focus Issue: Design for Additive

    In this Special Focus Issue of Digital Engineering, learn about the latest advancements in design for additive manufacturing, including new software tools, additive in automotive, custom medical devices, and more.

  • More Resources

By John Newman  

December 4, 2012

NASA has embraced the concept of additive manufacturing (AM) in a big way. The agency has looked to AM to build satellites in space, used it to create parts for the space exploration vehicle (SEV), and has investigated including a small 3D printer on board the SEV and future spacecraft flights.

That list doesn’t even include ideas to leverage AM to build small, unmanned rovers or creating end-use parts for its J-2X engine. Now, NASA is looking into the possibility of using lunar rocks to fuel 3D printers on the moon.

Lunar Rock 3D Printed Objects

The idea started with a paper published in the Rapid Prototyping Journal, written by a group of researchers at Washington State University (WSU). The paper put forth the notion that lunar rocks could be crushed, and the material used with a laser sintering AM process to build objects.

Intrigued, NASA sent WSU some lunar regolith simulant. The substance is manufactured on Earth to simulate the mix of minerals found in lunar rocks, including silicon, aluminum, calcium, iron and magnesium oxides. Only NASA gets to play with real moon rocks, which are considered a national treasure.

WSU researchers used the simulant to test their theory, and found achieving consistent results was difficult, owing to the fact silicon and oxide don’t melt uniformly. Rather than just upping the power, the team achieved success creating tools using AM methods similar to those used for ceramics.

“If you go higher, then what will happen is you will go from honey to water, and then what happens?” said lead author, Amit Bandyopadhyay. “It flows so much that you cannot make a part. So you need to have, you know, high enough to melt, but low enough not to overflow, basically. That’s the challenge.”

Building spare or replacement parts on the moon could possibly save millions of dollars in shipping costs, but the process won’t work for everything. Lunar rocks don’t create a fine enough material to print electronics, but are just dandy for objects like nuts and bolts.

Below you’ll find a video about the process.


Sources: Wired, BBC, Emerald

 
 

From our Sponsors

Meltio Takes Metal Additive to the Next Level
Meltio's DED technology enables industries to tailor and customize their solutions to create & repair metal parts.
Easing the Transition from ETO to CTO with Configuration Lifecycle Management
Manufacturers are discovering that the Configure-to-Order (CTO) model provides significant benefits when it comes to customization.
Siemens + Altair = The Next Chapter in Design and Simulation
With its acquisition of Altair, Siemens creates a unified simulation portfolio combining generative design with high-performance computing and AI workflows.