Two years ago, NASA issued a challenge: 3D print viable habitats that people can potentially live in on Mars, the moon, or elsewhere in the future, using locally available materials. The 3D Printed Habitat Challenge, co-sponsored by Bradley University, is composed of three phases, the first of which concluded in September. Shortly after that, NASA began accepting registration for Phase Two, which in itself is broken down into three sub-levels. Level One concluded at the end of March, and a few days ago, NASA announced the winners of this stage.
$100,000 was awarded to the two top-scoring teams in Level One, based on a point system. $85,930 was awarded to a team composed of Branch Technology and Foster + Partners, while $14,070 went to the University of Alaska Fairbanks. Level One, the Compression Test Competition, required that participants 3D print two structures: a truncated cone and a cylinder. The structures were then subjected to several lab tests to determine the winners.Branch Technology has become well-known for their pioneering Cellular Fabrication Technique, which they’ve used to build strong, lightweight structural walls using a giant freeform 3D printer. The company has sponsored 3D printed home-building competitions of their own, and recently participated in a project involving a futuristic 3D printed dronopod in Knoxville.
“Seeing tangible, 3D-printed objects for this phase makes the goals of this challenge more conceivable than ever,” said Monsi Roman, program manager of NASA’s Centennial Challenges. “This is the first step toward building an entire habitat structure, and the potential to use this technology to aid human exploration to new worlds is thrilling.”
While the competition is publicized as being for the purpose of developing outer space habitats, the technology the teams come up with may very well end up being used for housing on Earth as well. The focus on using locally available materials means that buildings could conceivably be 3D printed in remote areas where access to conventional building materials and equipment are limited.
The other teams participating in this stage of the challenge included:
“Innovation is a key focus of Bradley University which is one of the many reasons we are so very proud to be a part of the 3D-Printed Habitat Challenge with NASA,” said Bradley University President Gary Roberts. “The winners of Phase 1 and this first stage of Phase 2 are to be commended for their innovation in creating a solution that will fit not only in our world but beyond. I look forward to the next phase and seeing teams work to advance critical systems needed for human space exploration like never before.”
- Bubble Base of Winston-Salem, North Carolina
- Pennsylvania State University of University Park
- CTL Group Mars of Skokie, Illinois
- ROBOCON of Singapore
- Moon X Construction of Seoul, South Korea
The teams will now move on to the second stage of Phase Two, which will involve 3D printing a beam for testing. Phase Two, overall, is focused on the material technologies needed to create structural components, while Phase Three, the On-Site Habitat Competition, will center on fabrication technologies. Discuss in the NASA forum at 3DPB.com.[Source: NASA]
You May Also Like
RAM Metal 3D Printing Process Receives Patents in Multiple Countries
Metal 3D printing materials developer and supplier Elementum 3D, founded in 2014 by Dr. Jacob Nuechterlein, works to expand the selection of metal materials for additive manufacturing (AM) through the...
Sustainable Cabin Built on 3D-Printed Concrete Stilts from Infested Ash Wood
Our house had several ash trees in the front and back yard while I was growing up, and we lost three of them due to various acts of nature. Ash...
3D Printing News Briefs, May 28, 2020: Desktop Metal, DOMO Chemicals, Nano Dimension
We’ve got some partnership news we’re sharing in today’s 3D Printing News Briefs! Cetim and Desktop Metal are working together, while DOMO and Zare have also announced a partnership. Moving...
Technical University of Denmark: Integrated Process Chain for Production of Molds in LPBF Additive Manufacturing
Mandaná Moshiri recently presented a thesis, ‘Integrated process chain for first-time-right mold components production using laser powder bed fusion metal additive manufacturing’, to Technical University of Denmark. Exploring high precision...
View our broad assortment of in house and third party products.