We’ve found some additional details on SpaceX’s surprising 3D printed SuperDraco rocket engine.
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We’ve found some additional details on SpaceX’s surprising 3D printed SuperDraco rocket engine.
Read MoreIf you are like us, you would have been watching SpaceX unveil their astonishing new spacecraft, the Dragon V2.
Read MoreIn a completely new twist for the world of 3D printing, two researchers are working to create a new bioprinting methodology that would see clumps of cells spawn custom engineered, non-living biomaterials.
Read MoreNASA is experimenting with 3D printing techniques to develop not one, but at least three different solutions to space instrument manufacturing issues.
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Imagine being on Mars with the ability to replace any broken part, whether it's a part of your spacesuit, your habitat, or your own body. We propose a technique that would allow just that. By printing 3D arrays of cells engineered to secrete the necessary materials, the abundant in situ resources of atmosphere and regolith become organic, inorganic, or organic-inorganic composite materials.
This video gives you a blazing view of the one of the first tests of a 3-D printed rocket injector on June 27, 2013, in Test Stand 115 at NASA's Marshall Space Flight Center in Huntsville, Ala. Propulsion engineers used the tests to compare the performance of a 3-D printed rocket injector to an injector made with multiple parts and traditional welds. During the extreme temperatures and pressures of the hot firing, the 3-D printed part performed as well as the traditionally manufactured part. This test included a 3-D printed liner.
Apply these FabLab-based advanced manufacturing technologies to some of our specific ARC technology and product interests, including small spacecraft structures and components, biological technologies and in particular synthetic biology, small science instruments and spaceflight hardware and components, and in-situ repurposing of space products and materials.