NASA Perseverance Rover will Carry 11 3D Printed Metal Parts to Mars

11 of the metal parts on the NASA Perseverance Rover were 3d printed. These metal parts will land on will arrive on mars, on February 18th, 2021. Here’s more from SlashGear:

The 3D printing process allows engineers to make unique designs and traits, allowing parts to be produced that are lighter, stronger, and more responsive to heat or cold. The first rover to carry 3D printed parts to Mars’s surface was the Curiosity rover, which has been on the Red Planet since 2012. Curiosity has a 3D printed ceramic part inside of its Sample Analysis at Mars instrument.

Perseverance’s 3D printed components are known as “secondary structures,” which wouldn’t jeopardize the mission if the part should fail to function as intended. NASA officials say that taking additional 3D printed components to Mars is a “huge milestone,” opening the door for more additive manufacturing in the space industry. One of Perseverance’s 3D printing components is the outer shell of the PIXIL instrument intended to seek out signs of fossilized microbial life using x-ray beams directed at rocks.

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Auburn University set to 3D print commercial aircraft components with $3M FAA grant

Funded by a $3M grant from the Federal Aviation Administration (FAA), Auburn University’s National Center for Additive Manufacturing Excellence (NCAME) is set to commence a two-year project to improve air travel. The NCAME engineers will use industrial 3D printers to produce metal components for commercial aircraft, delving deeper into the process and materials to fine-tune […]

Farsoon supports successful Long March-5 Mars launch with 3D printed polymer parts

China has announced the successful launch of its Long March-5 carrier rocket from the Wenchang Space Launch Center – a multi-stage vehicle carrying the Tianwen-1 Mars probe into the red planet’s orbit. The heavy-lift rocket, which took off on July 23, features a set of polymer static firing skirts additively manufactured on a Farsoon HT1001P […]

NASA Lets You 3D Print Your Own Mars Perseverance Rover

After a successful launch on July 30, NASA‘s Mars 2020 Perseverance rover mission is on its way to the Red Planet to search for signs of ancient life and collect rock samples to send back to Earth. Nearly a decade in the making, the 10-foot-long rover packs some breakthrough technology, loaded with scientific instruments and advanced computational capabilities for landing and surviving the frigid Martian nights. Unlike its four predecessors, this is the largest, heaviest robotic Mars rover NASA has built, and space fans are fascinated. The activities and events prior to launch have been virtually packed with people of all ages from all over the world joining for a behind-the-scenes look at the rover, immersive augmented reality virtual trips to Mars, 3D visualizations to explore the science instruments for the mission, and even the chance to 3D print a full-size replica of the Perseverance.

The engineers that built the rover at NASA’s Jet Propulsion Laboratory (JPL) have released free print-ready STL files and assembly directions, found here, to make your own mini, simplified Perseverance. This is the latest addition to the 110 3D printable models that NASA has already made available to the public, which includes a variety of space-related models, from Saturn rockets and International Space Station tools to the Orion capsule and even landing sites for many of the Apollo missions. To make one mini rover, users will have to 3D print 39 parts, many of them more than once, to then assemble several components. All of the sub-assemblies are represented, including mobility and robotic arms, chassis, wheels, and the radioisotope thermoelectric generator (RTG).

Mars 2020 Perseverance ATLO Rover Drive Test (Image courtesy of NASA/J. Krohn)

Nearly a decade in the making, the real Mars 2020 mission rover weighs more than a ton and hosts seven scientific payloads, a robotic arm, the Ingenuity Mars Helicopter (which can also be downloaded as STL files for 3D printing), 25 cameras, and the first microphones to record sound on the Red Planet. Some of the major hardware in the car-sized Mars explorer, such as the cruise stage, descent stage, backshell, and heat shield were built upon the success of NASA’s Curiosity rover—part of the Mars Science Laboratory mission—and thereby includes many heritage components.

The nuclear-powered Mars explorer will become NASA’s ninth mission to land on Mars and the first since the Viking landers of the 1970s charged with seeking evidence of life. Prior to landing on Jezero Crater, a giant impact basin just north of the Martian equator, the rover will travel 290 million miles over seven cold, dark, unforgiving months aboard the United Launch Alliance (ULA) Atlas V rocket that launched from the Cape Canaveral Air Force Station in Florida.

A United Launch Alliance (ULA) Atlas V rocket carrying the Mars 2020 mission with the Perseverance rover lifts off from Space Launch Complex-41 (Image courtesy of United Launch Alliance)

2020 has turned out to be a very busy year space-wise, with dozens of missions going to orbit, the Moon, and Mars. In fact, Perseverence will be joined by two other interplanetary missions to the Red Planet: the United Arab Emirates’ Hope orbiter which launched on July 14 and will study the planet’s atmosphere and climate from above, and China’s first-ever fully homegrown robotic spacecraft, the Tianwen-1. All missions are currently on route and expected to arrive in February 2021.

“With the launch of Perseverance, we begin another historic mission of exploration,” said NASA Administrator Jim Bridenstine. “This amazing explorer’s journey has already required the very best from all of us to get it to launch through these challenging times. Now we can look forward to its incredible science and to bringing samples of Mars home even as we advance human missions to the Red Planet. As a mission, as an agency, and as a country, we will persevere.”

The Perseverance rover carries seven instruments to conduct its science and exploration technology investigations (Image courtesy of NASA/JPL-Caltech)

As part of America’s larger Moon to Mars exploration approach, the Mars 2020 Perseverance mission is to prepare for future human exploration of the Red Planet. The Martian rock and dust Perseverance’s Sample Caching System collects could answer fundamental questions about the potential for life beyond Earth. Two future missions currently under consideration by NASA, in collaboration with the European Space Agency (ESA), will work together to get the samples to an orbiter for return to Earth to undergo in-depth analysis by scientists using equipment far too large to send to the Red Planet.

The Perseverance rover’s astrobiology mission is to seek out signs of past microscopic life on Mars, explore the diverse geology of its landing site, and demonstrate key technologies that will help future robotic and human exploration. According to NASA, while most of Perseverance’s seven instruments are geared toward learning more about the planet’s geology and astrobiology, the MOXIE (Mars Oxygen In-Situ Resource Utilization Experiment) instrument’s job is focused on missions yet to come. Designed to demonstrate that converting Martian carbon dioxide into oxygen is possible, it could lead to future versions of MOXIE technology that become staples on Mars missions, providing oxygen for rocket fuel and breathable air.

“Jezero Crater is the perfect place to search for signs of ancient life,” said Thomas Zurbuchen, associate administrator for NASA’s Science Mission Directorate at the agency’s headquarters in Washington. “Perseverance is going to make discoveries that cause us to rethink our questions about what Mars was like and how we understand it today. As our instruments investigate rocks along an ancient lake bottom and select samples to return to Earth, we may very well be reaching back in time to get the information scientists need to say that life has existed elsewhere in the universe.”

Illustration NASA’s Perseverance rover uses its Planetary Instrument for X-ray Lithochemistry (PIXL) instrument to analyze a rock on the surface of Mars (Image courtesy of NASA/JPL-Caltech)

Deep space exploration remains one of the most appealing undertakings of humanity. Rovers like the Perseverance, and the others before it, engage the curiosity of thousands of people. Today, 3D printing can help recreate these unique explorers at home and has proven to be a great mechanism to engage students and educators in space-related activities, giving them new tools to understand faraway terrains, spacecraft engineering, and technology. Thanks to NASA’s JPL learning space, anyone can explore the world and beyond through projects, toolkits, and many real-life models that give people the chance to touch, feel, and interact with advanced space technology like never before.

The post NASA Lets You 3D Print Your Own Mars Perseverance Rover appeared first on 3DPrint.com | The Voice of 3D Printing / Additive Manufacturing.

Titan Robotics and Braskem launch new polypropylene pellets for industrial 3D printing 

Brazilian petrochemical company Braskem has partnered with 3D printer manufacturer and service provider Titan Robotics to launch a new polypropylene (PP) resin.  Developed as part of the companies’ ongoing collaboration, the pellet-based polymer is the first commercially-available PP to be specifically engineered for Titan’s Atlas line of dual extrusion 3D printers. What’s more, the material […]

Registration opens for ISS U.S. National Lab’s “Additive Manufacturing in Space” workshop

The International Space Station’s U.S. National Laboratory has announced that registration is open for the upcoming “Additive Manufacturing in Space” workshop.  Hosted by the managers of the ISS National Lab, the Center for the Advancement of Science in Space (CASIS), the workshop will discuss how developments in 3D printing are creating new opportunities both on Earth […]

The Future Of Aerospace 3D Printing

Innovations in the aerospace industry have been seeing huge strives when it comes to 3D printing. Aerospace companies and organizations from around the globe are using 3D printing for both prototyping and end-use parts. These applications have been ramping up for years — and now we’re looking ahead to the future of 3D printing in aerospace.

Aerospace
3D Printing Today

Aerospace is a unique fit for 3D printing, offering a prime application area for many of the benefits of additive manufacturing technologies. Among these benefits are:

  • Part consolidation
  • Lightweighting
  • Complex geometries (“freedom of design”)
  • Rapid prototyping
  • Low-volume production
  • Digital inventory

Leveraging these benefits is proving
transformative for aerospace manufacturing as today’s aircraft, rockets, and
other commercial, private, and military aerospace builds are increasingly able
to perform better than ever before. Fewer, lighter parts mean fewer assembly
points that could be a potential weakness as well as a lighter weight
structure, enhancing fuel efficiency and load capabilities.

Aerospace has long been a ‘city on a hill’ for
additive manufacturing, offering highly visible proof points of the
technology’s high-flying potential to very literally fly high.

Like in the automotive industry, many
aerospace entities have been using 3D printing internally for years, if not
decades. Also like the automotive industry, though, many companies have seen
the technology as a competitive advantage best kept somewhat under wraps. This
has perhaps benefited these companies’ bottom lines — but it has limited the
visibility of these applications.

The GE fuel nozzle — which famously reduced from approximately 20 welded pieces into one 3D printed (and 25% lighter weight) piece — was among one of the highest-profile individual applications to be publicly shared. Such use cases are only ramping up; between 2015 and 2018, for example, GE 3D printed 30,000 of those fuel nozzles. Still, though, these examples are often heard over and over again because many other specific use cases are still seen as proprietary ‘secret sauce’ and not public knowledge.

The cat’s out of the bag by now, though, and
it’s almost an assumption that any aerospace company is in some way utilizing
3D printing in its operations.

From SpaceX and NASA to Boeing and Airbus,
this is certainly the case. These companies are among the highest-profile in
aerospace to share at least some look into their 3D printing usage.
Applications range from visible cabin components in passenger airplanes to
made-in-space tools on the International Space Station, with both mission
critical and aesthetic uses well represented.

The secrecy of ‘secret sauce’ is slowly
changing, too, as in addition to broadening adoption of 3D printing, space
exploration is becoming privatized.

Organizations like SpaceX certainly have their fair share of trade secrets but are also open about their use of 3D printing in applications from spacecraft to personalized astronaut helmets. 3D printing is often coming into play as well to not only make components of rocket engines, but also in new uses such as at Rocket Crafters for their fuel grains.

Smaller, private companies working in the
space industry are celebrating the technologies they use to gain traction in
technological advance and out-of-this-world achievements. By highlighting
instead of hiding the tech helping them to accelerate toward their own
liftoffs, these new entities are contributing directly to a shift in the
conversation around aerospace technologies.

Aerospace
3D Printing Tomorrow

When we look ahead, we can see an even brighter
future for an aerospace industry making more and better use of additive
manufacturing opportunities.

While certainly the technologies will improve,
providing natural points of improvement even from those areas already
leveraging additive manufacturing, the largest single point of future impact
for aerospace overall will simply be wider spread adoption.

While the 3D printing industry has
historically been excellent at internally sharing the benefits of the
technology (like those bulleted above), a sticking point has been in
externalizing this message. Aerospace becoming a more open industry with these
new private entities on the rise, and with more participants discussing the
advanced technologies they put to use every day, will see industrial additive manufacturing
gaining more attention, and more traction, overall.

If the GE fuel nozzle made anyone do a
double-take, the next innovations to come — or even those already accomplished
and not yet publicized — are sure to be fully head-turning.

Further parts consolidation, lightweighting,
and other means of taking advantage of the freedoms that DfAM (design for
additive manufacturing) enables have the potential to see massive advances in
aircraft and spacecraft manufacture.

By optimizing every part of an aircraft,
completely rethinking and redesigning the whole, a manufacturer might see
unprecedented capabilities emerge. In an industry where every ounce of
structural weight matters and lessening any possible point of failure is a
must, industrial 3D printing is an obvious fit.

The technology will only continue to make headway into the aerospace industry going forward, and with that larger general footprint will come more significant discrete advances. The future of aerospace and 3D printing is a relationship that will be ever more tightly intertwined.

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The post The Future Of Aerospace 3D Printing appeared first on Shapeways Blog.

Optomec launches ROI assessment tool calculating the cost savings of using 3D printing for MRO

Optomec, the New Mexico-based developers of Laser Engineered Net Shaping (LENS) and Aerosol Jet Printing (AJP) metal 3D printers, has launched a new Return On Investment (ROI) assessment tool.  Built on Optomec’s own remanufacturing experience, the cost calculator is reportedly able to assess the profitability of automated laser cladding equipment for gas turbine Maintenance and […]

Relativity Secures a New Launch Site in California for 3D-Printed Rockets

A new launch site facility at Vandenberg Air Force Base in Southern California will be Relativity Space‘s latest adoption to its growing portfolio of infrastructure partnerships. With this new addition, the 3D-printed rocket manufacturer’s launch capabilities will now span both coasts of the United States, as the company already has a lease for a launch site in Cape Canaveral, Florida. Ahead of next year’s inaugural Terran 1 rocket launch, these expanded capabilities, along with the company’s autonomous production via metal 3D printing, help drive Relativity’s momentum and customer base at a time when the space industry is booming and the number of rocket launches increases exponentially. 

To build up its launching capabilities, Relativity signed a Right of Entry Agreement with the 30th Space Wing of the United States Air Force to begin the assessment of the viability of launch operations at the prospective site. The location chosen for Relativity’s new launch complex is the current site of Building 330 (B-330) and the adjacent land, a storage facility located just south of SLC-6, the current west coast launch site for United Launch Alliance’s Delta IV Heavy rocket. Moreover, Relativity’s senior leadership team, drawn from both longtime aerospace companies and industry pioneers, has executed dozens of successful launches at Vandenberg.

“We’re honored to begin this partnership with the 30th Space Wing and join the exclusive group of private space companies able to conduct launches at Vandenberg,” said Tim Ellis, CEO of Relativity. “The West Coast launch facilities allow Relativity to provide affordable access to polar and sun sync orbits that are critical for both government and commercial customers. The geographic southerly position of B-330 at Vandenberg offers schedule certainty and increased launch frequency that will be advantageous to our Terran 1 customers.”

Home to the 30th Space Wing, which manages the Department of Defense’s space and missile testing as well as satellite launches into polar and Sun Synchronous orbits (SSO) from the West Coast, the Vandenberg launch site would support Terran 1 as well as future Relativity Space capabilities, offering Relativity’s customers a complete range of orbital inclinations adding to LEO, MEO, GEO, and low inclination orbits possible at Cape Canaveral’s Launch Complex 16.

“The 30th Space Wing takes great pride in supporting the next generation of leaders in space. We are impressed by Relativity’s innovative approach to reinventing aerospace manufacturing via 3D metal printing and robotics paired with an executive team of seasoned aerospace leaders. We look forward to working with Relativity as its West Coast launch partner for many years to come,” stated Colonel Anthony J. Mastalir, 30th Space Wing commander at Vandenberg Air Force Base.

Relativity’s Los Angeles facility (Credit: Relativity Space)

Disrupting 60 years of aerospace, the California-based startup is pushing the limits of additive manufacturing as it attempts to 3D print entire orbital-class rockets. Originally based in Los Angeles, the autonomous rocket factory and launch services leader for satellite constellations recently moved its work to a 120,000 square foot site in Long Beach, California, that will house both the company’s business operations and an unprecedented manufacturing facility to create the first aerospace platform that will integrate intelligent robotics, software, and 3D autonomous manufacturing technology to build the world’s first entirely 3D printed rocket, Terran 1. 

Up until now we only heard of four customers onboard the Terran 1 manifest, which are Telesat, mu Space, Spaceflight, and Momentus Space. However, Relativity also revealed on Wednesday, via a Twitter post, its fifth launch contract with satellite operator Iridium Communications. According to the company, as many as six Iridium NEXT communication satellites would launch no earlier than 2023 from the new launch site to be constructed at Vandenberg.

Iridium’s CEO, Matt Desch, explained that “Relativity’s Terran 1 fits our launch needs to LEO well from both a price, responsiveness and capability perspective.”

Focused on expanding the possibilities for the human experience by building a future in space faster, and starting with rockets, Relativity has been working to pioneer technology that allows them to reduce the part count 100 times by printing across Terran 1’s structure and engines, also significantly reducing touchpoints and lead times, greatly simplifying the supply chain and increasing overall system reliability.

Launch Complex 16 at Cape Canaveral, Florida (Credit: Relativity Space)

Throughout the last five years, the company has conducted over 300 test firings of its Aeon rocket engines as part of an engine test program conducted at test complex E4 and E2 at NASA’s Stennis Space Center in Mississippi. Powered by liquid methane and liquid oxygen, nine Aeon 1 engines will power Relativity’s first Terran 1 vehicles to LEO. According to NASA Spaceflight, the propellant choice for Aeon 1 is consistent with Relativity’s stated goal of enabling an interplanetary future for humanity, especially since methane and oxygen are expected to be the easiest rocket propellants to produce on Mars. As well as highly automated 3D printing manufacturing methods that can become extremely relevant to future interplanetary space travel.

Relativity is quickly advancing towards launching the first entirely-3D printed rocket to space as it continues to engage in public-private partnerships. In fact, this last agreement represents yet another milestone that the company secured with federal, state, and local governments and agencies across the United States Government. As the first autonomous rocket factory and next-generation space company, Relativity aims to produce an innovatively designed and manufactured rocket, just in time for the upcoming new space race, where startups have the opportunity to be part of an entirely different, unknown, and competitive big new frontier for the private space industry.

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