AM for Space

Space additive manufacturing is going to have a key role in enabling the future of human space travel and interplanetary colonization. In fact, it is already playing a key role in enabling the production of low-cost satellites and lighter, more efficient rockets to take cargos into orbit.

Whether it will take another 10, 50 or 100 years for commercial space-based ventures to grow into one of the largest—if not the largest—manufacturing segments, we are already past the dawn of the commercial space age and we just experienced the dawn of the commercial human space age. Commercial space exploration or commercial planetary colonization will soon be within our reach, as several companies of various sizes are now creating viable business opportunities in space for satellites and the communication industry.

One of the most significant challenges that all these space ventures need to overcome in order to place satellites, probes, landers, telescopes or even spacecraft in orbit is the high per kilogram cost required to break free of the Earth’s gravitational pull. This means that for every additional kilogram of payload, mission costs can increase by several orders of magnitude because heavier or bigger payloads require larger and more powerful launch vehicles.

Additive manufacturing provides the most effective tool to optimize weight in systems built to reach space. This is true both for launch vehicles and—until the time when resources are gathered in space—for spaceborne systems and devices. Together with weight-optimized geometries, AM can help to greatly lower the cost of commercial space activities by continuing to drive the development of advanced materials, including metal replacement, high-performance polymers and composites.

space additive manufacturing
Click on the image to read about the most relevant projects for 3D printing interplanetary space habitats

Space, the initial frontier

Additional direct advantages can be derived from increased process automation for small batch series or single item production—which is a more relevant issue in rocketry and satellite manufacturing than in any manufacturing segment. This is especially true within the $120-billion commercial infrastructure and support segments—including the manufacturing of spacecraft, in-space platforms and ground equipment, as well as launch services and independent research and development. While the overall revenues will continue to represent only a minimal part of the overall space manufacturing industry, AM has the potential to be one of the key elements that will help the commercial space industry grow into maturity.

Further down the road, with more people traveling in Space, AM more and more production will take place in Space as well. Nowhere is production more distributed than outside of our planet, and no technology can deliver on-location, distributed manufacturing of complex part more efficiently than additive manufacturing. Getting to orbit, getting through space, and staying in space will only be possible through AM.

Availability of construction materials (e.g., metals, water) in space (on asteroids or on surfaces of planetary bodies) creates the possibility to additively build settlements and other facilities without having to take expensive and bulky prefabricated materials out of Earth’s gravitational field. Lunar and Mars regolith, for example, could be used to construct pressurized habitats for human shelter as well as other infrastructure (landing pads, roads, blast walls, shade walls and hangars for protection against thermal radiation and micrometeorites). Several NASA and ESA funded projects explored the concept of using various additive manufacturing techniques to build infrastructure on the Moon and on Mars.

Exactly how it will happen is the Focus of 3dpbm’s Aerospace AM Focus 2020 for this entire month. We have lots of great content coming up so stay tuned.

  • NASA is getting ready to send astronauts to explore more of the Moon as part of the Artemis program, and the agency has selected SpaceX to continue the development of the first commercial human lander that will safely carry the next two American astronauts to the lunar surface. Any doubt…

    Read More
  • Launcher’s first-ever 3D printed turbopump, the first of many to come on the company’s way to orbit, underwent high performance testing for closed cycle at NASA Stennis Space Center E-complex. The initiative was sponsored by U.S. Space Force SBIR. Stennis Space Center serves as the US’ premier rocket propulsion test…

    Read More
  • Amazon founder Jeff Bezos’ Blue Origin is a heavy user of AM. The company used AM for parts in the New Shepard, New Glenn and Blue Moon vehicles and has a large farm of Raise 3D and Stratasys industrial polymer extrusion systems (which it also used to produce medical PPE supplier…

    Read More
  • CAES, a provider of RF technologies and related mission-critical electronic solutions, and SWISSto12, a provider of 3D printed technology for RF applications in the aerospace and defense industry, formed a strategic alliance to enable CAES to bring additive manufacturing and 3D printing technology to US customers. “We are proud to…

    Read More
  • Virgin Galactic has unveiled Spaceship III VSS Imagine, the first in its class. The spaceship showcases Virgin Galactic’s innovation in design and astronaut experience. Imagine also demonstrates progress toward efficient design and production, as Virgin Galactic works to scale the business for the long-term. VSS Imagine will commence ground testing,…

    Read More
  • After a number of 3D printed parts landed on Mars, with the Perseverance Rover, another set of 11 metal 3D printed parts is now getting ready to catch a ride on ESA’s JUICE spacecraft, which will soon be on its way to Jupiter’s orbit. The JUICE 3D printed parts were…

    Read More
  • Roboze, a manufacturer of industrial 3D printing technology for extreme end-user applications, was selected by the University of Colorado Boulder to optimize the design and 3D-printed components for a CubeSat project.  The college’s department of Aerospace Engineering Sciences is running the show. The CubeSat will spend at least six months…

    Read More
  • An L3Harris-designed Radio Frequency (RF) circuit and an array of various 3D printed material samples launched into space, bound for the International Space Station (ISS). The components, produced on a Dragonfly electronics 3D printer, are part of an experiment to assess the viability of 3D printed materials for RF applications.…

    Read More
  • Improvising new stuff from the stuff you have is part of an astronaut’s job description – think Apollo 13’s crew refitting CO2 filters to save their own lives, or stranded Mark Watney in The Martian, feeding himself on the Red Planet. Now plans are underway to manufacture items in orbit,…

    Read More
  • After a short delay due to the FAA’s request for further assurances on the possible dangers of crashes and explosions, Starship serial number 10 – Starship SN10 – lifted off from SpaceX‘s Cameron County launch pad and successfully ascended, transitioned propellant, and performed its landing flip maneuver with precise flap…

    Read More
Back to top button

We use cookies to give you the best online experience. By agreeing you accept the use of cookies in accordance with our cookie policy.

Privacy Settings saved!
Privacy Settings

When you visit any web site, it may store or retrieve information on your browser, mostly in the form of cookies. Control your personal Cookie Services here.

These cookies are necessary for the website to function and cannot be switched off in our systems.

In order to use this website we use the following technically required cookies
  • PHPSESSID
  • wordpress_test_cookie
  • wordpress_logged_in_
  • wordpress_sec

Decline all Services
Accept all Services

STAY AHEAD

OF THE CURVE

Join industry leaders and receive the latest insights on what really matters in AM!

This information will never be shared with 3rd parties

I’ve read and accept the privacy policy.*

WELCOME ON BOARD!