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it more practical in space. “Namely, faster speeds, increasing the<br />

range of materials, improving the integrity of printed parts, and<br />

making it easier to use. However, some things like ease of use<br />

are actually less important in space because the zero-G 3D printer<br />

is almost entirely remotely operated by experts. All the astronaut<br />

need do is say, ‘I need such and such’ and the ground teams will<br />

use the printer to make it so.”<br />

materials.”<br />

NASA/JPL is seeking partnerships with companies and<br />

universities to make new materials for 3D printing, which is a<br />

commercial development, Soderstrom added. There is quality<br />

assurance with materials to validate that the material will work.<br />

“One of the most interesting things is that when we send<br />

something into space, it’s extremely risky, so we demonstrate that<br />

it’s going to work as much as we can. So there is a lot of QA. We<br />

will x-ray the materials to assure there’s no problem with it.”<br />

Borgonia said that polymers are a good “show and tell” toy,<br />

but can 3D-printed titanium parts behave similar to the wrought<br />

version of the material? It’s something JPL is working with the<br />

America Makes Consortium to determine (so far, titanium does<br />

behave similarly).<br />

Dramatic innovation<br />

LavaHive, designed by the LavaHive team in the 3D Printed Habitat Challenge Design<br />

Competition, won third place in the NASA-awarded competition, using a ‘lava-casting’<br />

construction<br />

Changing methods<br />

An engineer designing a component of part with subtractive<br />

manufacturing is classically trained to understand how to do<br />

it, said John Paul Borgonia, Technologist at JPL Materials<br />

Developments and Manufacturing Technology Group.<br />

“There are some limitations to that type of manufacturing,”<br />

Borgonia said. “With additive, it completely changes their way<br />

of thinking as engineers, because there are features that would<br />

not have been possible to add to the hardware without additive<br />

manufacturing. Take, for example, I want a particular structure.<br />

Now, I want the actual inside of that structure to be cellular. With<br />

additive manufacturing, those features can be added.”<br />

In space, materials become important as it is super-hot and<br />

super-cold and airless, so they have to handle all that, Soderstrom<br />

noted. Now robots that fly, swim and climb are being made with<br />

more speed, in contrast to the delay in sending out plans and would<br />

take a week to come back. “This cycle that used to take weeks,<br />

now that we have the multi-material printer in house, that cycle<br />

that used to take six weeks is now a day and a half.”<br />

Soderstrom says innovative things are being done with 3D<br />

printing of food. One of his favourite devices is the “Star Trek”<br />

replicator. “How<br />

far away is that? It<br />

may not be that far.<br />

It all comes down<br />

to material, and I<br />

think being able to<br />

experiment with<br />

new materials is<br />

something that’s<br />

extremely important<br />

Jason Dunn, CTO of Made In Space (foreground) and Mike<br />

Snyder, Director of Research and Development (background) work<br />

on the 3D printer sent to operate in the microgravity of the<br />

International Space Station (courtesy of Made In Space)<br />

for us in space and<br />

here at JPL. We at<br />

JPL are working<br />

quite heavily now<br />

by looking at new<br />

Soderstrom says now, designs can be done over the internet with<br />

programmes through Thingiverse or similar websites, and with<br />

social networks, there is a collaboration that has never been done<br />

before. He says 3D printing is enabling us being on “the very cusp<br />

or dramatic innovation”. Kohlenberg says with the research efforts<br />

at Made In Space, they hope to expedite humanity’s ability to<br />

survive any potential future events that could jeopardise life on<br />

earth.<br />

“As we develop solutions for living sustainably in space, we<br />

can take those lessons of sustainability back to earth and better live<br />

on a planet with finite resources. In the very near term, we hope<br />

that our research leads to more products like Made In Space - Fibre<br />

On the right is the 3D printer by Made In Space launched to the International Space<br />

Station in 2014, and on the left is an electronics box that supplies power and stores data.<br />

The printer was deemed successful in 3D zero-gravity printing, and another larger 3D<br />

printer is currently at the ISS (courtesy of Made In Space)<br />

Optics with clear and tangible economic benefits that can further<br />

enable our long term vision.”<br />

Soderstrom says it’s about future thinking, with one of the<br />

key things considering how 3D printing can help NASA/JPL<br />

stakeholders - the public.<br />

“In fact, it’s all of humanity. Being able to engage the public<br />

and all of humanity in the idea of ‘What could we do with 3D<br />

printing?’ is one of the goals, and we’ve had quite a few of those<br />

already, but I think we’re just scratching the surface. All of the<br />

innovation that is happening in 3D printing in industry and homes<br />

throughout the world and in universities is really going to help us<br />

a lot.”<br />

©<strong>2017</strong> The Recycler www.therecycler.com Page 3

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