Free Trials

Download a free trial to find out which Altium software best suits your needs

How to Buy

Contact your local sales office to get started on improving your design environment

Downloads

Download the latest in PCB design and EDA software

  • PCB DESIGN SOFTWARE
  • Altium Designer

    Complete Environment for Schematic + Layout

  • CircuitStudio

    Entry Level, Professional PCB Design Tool

  • CircuitMaker

    Community Based PCB Design Tool

  • NEXUS

    Agile PCB Design For Teams

  • CLOUD PLATFORM
  • Altium 365

    Connecting PCB Design to the Manufacturing Floor

  • COMPONENT MANAGEMENT
  • Altium Concord Pro

    Complete Solution for Library Management

  • Octopart

    Extensive, Easy-to-Use Component Database

  • PRODUCT EXTENSIONS
  • PDN Analyzer

    Natural and Effortless Power Distribution Network Analysis

  • See All Extensions
  • EMBEDDED
  • TASKING

    World-Renowned Technology for Embedded Systems Development

  • TRAININGS
  • Live Courses

    Learn best practices with instructional training available worldwide

  • On-Demand Courses

    Gain comprehensive knowledge without leaving your home or office

  • ONLINE VIEWER
  • Altium 365 Viewer

    View & Share electronic designs in your browser

  • Altium Designer 20

    The most powerful, modern and easy-to-use PCB design tool for professional use

    ALTIUMLIVE

    Annual PCB Design Summit

    • Forum

      Where Altium users and enthusiasts can interact with each other

    • Blog

      Our blog about things that interest us and hopefully you too

    • Ideas

      Submit ideas and vote for new features you want in Altium tools

    • Bug Crunch

      Help make the software better by submitting bugs and voting on what's important

    • Wall

      A stream of events on AltiumLive you follow by participating in or subscribing to

    • Beta Program

      Information about participating in our Beta program and getting early access to Altium tools

    All Resources

    Explore the latest content from blog posts to social media and technical white papers gathered together for your convenience

    Downloads

    Take a look at what download options are available to best suit your needs

    How to Buy

    Contact your local sales office to get started improving your design environment

    • Documentation

      The documentation area is where you can find extensive, versioned information about our software online, for free.

    • Training & Events

      View the schedule and register for training events all around the world and online

    • Design Content

      Browse our vast library of free design content including components, templates and reference designs

    • Webinars

      Attend a live webinar online or get instant access to our on demand series of webinars

    • Support

      Get your questions answered with our variety of direct support and self-service options

    • Technical Papers

      Stay up to date with the latest technology and industry trends with our complete collection of technical white papers.

    • Video Library

      Quick and to-the-point video tutorials to get you started with Altium Designer

    How NASA Plans to Use 3D Printed Circuit Board Technology

    Altium Designer
    |  July 14, 2017

    NASA Logo
    Editorial credit: Tony Craddock / Shutterstock.com

    Have you noticed how 3D printing has become a phenomenon? People seem to want to 3D print anything they can now. Maybe the 3D printing craze will collide with the Internet of Things and we’ll get a printed smart fork. While other people are writing about the 50 best things you can make with them and then throw away, I’m going to tell you how NASA hopes to use 3D printing. Spoiler alert, they want to print spacecraft and circuits. NASA has laid out a scientific mission that details exactly how and why they would use printed circuits. They have also reviewed the current technologies that could make that future a reality.

    How NASA Missions Can Use Printed Circuits

    The final frontier is an extreme environment that requires extraordinary innovation to explore its reaches. NASA has pulled off lots of incredible missions in the past, but as we move further into space travel they’ll need even more advanced tools to complete their missions. Flexible printed circuits are one technology NASA is looking at to help them reach their lofty goals. Their theoretical StANLE mission was planned in order to showcase why printed circuits would be advantageous and how they might look.

    The StANLE mission was thought up to illustrate the potential of printed spacecraft. When I first read “printable spacecraft,” I thought they wanted to print a space shuttle. It turns out these vessels would be more like sheets of paper to be used primarily as meteorological stations. These sensor arrays would be jettisoned over a huge area in order to collect things like temperature, pressure, wind speed, radiation, and humidity.

    Space shuttle in flight
    NASA isn’t talking about printing these.

    In the past, NASA has used things like rovers to study other planets. A 3D printed system would have several advantages over that kind of mission. Rovers can be quite advanced, but travel slowly and can only take data in one area at a time. They also carry a greater risk of failure since all their components are centralized. A major failure in one system could cause the whole rover to fail. Alternatively, using thousands of discrete sensors over a wide area spreads the risk of failure out over thousands of units while collecting large amounts of data. Flexible circuits themselves also carry several advantages, particularly their low weight and small size. Those two attributes are what would allow this kind of mission to theoretically be successful. NASA compared the weight budget of this mission with a more traditional one (564 kg), which would just have one lander. They found that even with a payload of thousands of circuits, this mission would still fit the same weight budget. With this kind of arrangement, they could deploy thousands of lands over thousands of kilometers, instead of using just one station.

    You’re probably wondering what these printable spacecraft would actually look like? It turns out they would look basically like a piece of paper; one big flexible circuit. This PCB would be made up of components like an antenna, microcontroller, analog to digital converter (ADC), battery, solar cells, temperature sensors, radiation sensors, photo sensors, pressure sensors, humidity sensors, and wind sensors. Some of this technology is currently available in a flexible format, but not all of it. That’s why NASA then looked into what printable circuit technologies it would take to make this mission a reality.

    Flexible PCB
    Flexible printed circuits will look more like this.

    Technology Readiness Levels

    NASA develops and utilizes cutting edge technologies. To help organize those efforts they have developed a rating system of technology readiness levels (TRLs). The highest TRL is 9, which means something has been flight proven. A TRL of 1 shows that a technology is only in the beginning research stages. In order to give us a better idea of how viable the StANLE mission is, NASA looked at TRLs of each printable piece. NASA needs these components to be ready by 2020. Since each of them have commercial applications and are currently being researched, it’s likely they’ll make that deadline. I’ll talk to you about one of the that is halfway ready, and one that is still in initial research.

    One piece of the puzzle that is nearly complete is the temperature sensor. Not only do flexible temperature sensors already existed, printed ones do as well. The sensors NASA is looking at are printed with silver nanoparticle ink, which can last for the duration of the mission. Current top of the line sensors can operate between -263℃ and 27℃ with a resolution of 0.1℃. NASA feels that these attributes meet their requirements for range and sensitivity, so this sensor is well on its way.

    Things are not always so simple, though, and other components need more work. The microcontroller could be the hardest piece to make fully printable. Printed microcontrollers do exist, but they’re very slow. A StANLE spacecraft’s microcontroller would need to control read/write to the memory, regulate power, and poll sensors for data. NASA could reduce functionality to meet the technology where it is, but that’s not a great solution. Instead, they hope to use a hybrid of a flexible thin film microprocessor. It won’t be printed, but it would still be flexible and fit in with the overall spacecraft design.

    NASA hopes to have this mission ready to go by 2024, which means the technologies involved need to be ready around approximately 2020. I’m not sure if all of these systems will make it, but I hope they do. The theoretical StANLE mission shows how useful printed flexible circuits could be. They could expand the range and reduce the risk of current space missions without adding weight or volume. Now we just need our research labs to keep pumping out printable sensors and other printed PCB components.

    This NASA mission clearly shows that the future of circuits will be both printed and flexible. You’re going to need to learn how to use flexible circuits, and also how to design them. Lucky for you great PCB design software like Altium Designer® can help with that. Altium has lots of tools that can help you with flexible design.

    Have more questions about flexible circuits? Call an expert at Altium.

     

    Check out Altium in action...

    Powerful PCB Design

    About Author

    About Author

    PCB Design Tools for Electronics Design and DFM. Information for EDA Leaders.

    most recent articles

    Back to Home