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GEO Satellites business globally make roughly 80% of the overall Space market business with $270B revenues claimed in 2017. How a Space Industry of such kind level of business can disappear is not an argument for many years to come but how a transformation of the Satellite configuration can impact the Space Industry this represents a real topic.

I already discussed in my previous article of how the advancement of A.I. bringing to autonomous missions for satellites, 3D printing permitting on-orbit Manufacturing and Robotic Assembly are not far away technologies, with the mature advancements achieved in on-Ground applications, to be applied to Space Satellites. Already today recently born Startups are working on Satellites on-board software/hardware permitting more autonomous tasks with decision making capability without being piloted from remote on-Ground Stations, significantly reducing operative costs.

Arriving to build fully autonomous Satellites is just a matter of time, with remotely controlled operations to be applied only for safety contingencies. The foreseen growth in the number of small satellites by order of magnitudes push the market this way.

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Medical research has taken a leap into the future as Russian scientists have managed to grow a mouse’s thyroid in zero gravity using a 3D bioprinter on the International Space Station (ISS). And human organs may be next in line.

The breakthrough device dubbed Organaut was delivered to the ISS by a Soyuz MS-11 spacecraft on December 3 by Expedition 58.

In what is no longer a plot of a sci-fi movie, the innovative device created a mouse’s thyroid in zero gravity. And the result was a success. Invitro, whose subsidiary 3D Bioprinting Solutions built the printer, told Ria Novosti: “We received photos from space. The camera clearly shows a living construction of a mouse’s thyroid being assembled.”

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The discovery by researchers at the University of Leeds marks a major breakthrough which has eluded material scientists for more than 30 years.

The ‘auxetic’ stretching property, which is found in human tendons and cat skin, had only been recreated using conventional materials.

The new material could pave the way for commercially viable products as creating it does not involve expensive, complex engineering processes such as 3D printing, according to the findings published in the journal Nature Communications.

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3D bioprinting continues to diversify as more and more companies and research organizations join the field, each bringing their own take on the technology to the table. French collaborative platform 3D.fab has an intriguing approach towards bioprinting that involves a freeform robot capable of directly printing on a part of the body. In the video below, the BioAssemblyBot prints what appears to be a bandage directly on an arm:

The “bandage” is actually a bio-ink made from the skin cells of a patient. When applied to the patient’s skin, it forms an autograft that will, within a couple of weeks, create new skin. The BioAssemblyBot is capable of both additive and contour 3D printing, as well as pick and place and assembly thanks to its interchangeable tools. It’s only one of 3D.fab’s bioprinting technologies; the platform has a few other bioprinters in development as well, including another skin printer.

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Ever since 2014, Italy-based Youbionic, which was founded by Federico Ciccarese and specializes in robotics and bionics, has been working on its 3D printed, robot-controlled, bionic prosthetic hand. The company started taking pre-orders for the bionic prosthetic two years ago, and has since been making improvements and updates to the original model, even coming out with a 3D printed double hand device for the augmented human. Now, Youbionic has released its latest bionic product – the Youbionic One.

“We believe that technology at our disposal today can be used for the increase in human capabilities and intervention in the replacement of parts of our body which are not working properly,” Ciccarese wrote in an email.

“Youbionic is committed every day to create technologies that can elevate mankind to a higher level.”

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Mars is lacking in the vast supply of natural resources we’ve come to rely on here on Earth, and astronauts attempting to colonize, or even just visit, the red planet can only bring a limited supply of materials with them. Learning to make do with what Mars has to offer is one of the biggest challenges of visiting our nearest neighbor, but the results of the European Space Agency’s latest 3D-printing experiments prove it isn’t impossible.

We’ve sent probes and rovers to Mars, but to date it’s only been a one-way trip. Our knowledge of what Mars is made from is limited to what Spirit and Opportunity can learn from samples, and studying Martian meteorites that have made their way to Earth. Like our moon, if there’s one thing Mars isn’t lacking, it’s dust. So as a stand in for genuine Mars ingredients, researchers have turned to a simulated version of lunar soil, also known as lunar regolith.

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