Intel Develops $50 3D Printed OpenBot to Advance Robotics Accessibility

Researchers at Intel Labs have developed a smart robot that anyone with a smartphone can build, using open source code, a 3D printer, and $50. What is different with this 3D printed robot is that the smartphone isn’t just used to control the robot, as with devices such as MobBob or Qualcomms Micro Rover, but is used directly as the ‘brains’ of the bot, leveraging the advanced features and operating systems in today’s smartphones to enable high-quality sensing and computation, while improving affordability, accessibility and scalability—all within a $50  budget (not including the smartphone).

While there have been efforts previously at making robot technology affordable and scalable, compromises have been made either in design, functionality, or performance. Relatively expensive robots in this area of research can cost between $2,000-$5,000, while mobile-based robots are significantly less expensive, yet still fall between $250-500 in cost, such as the AWS DeepRacer, DJI Robomaster S1, Nvidia JetBot, and DukieBot.

As the study says, “the aforementioned projects use the smartphone as a remote control for teleoperation, offload data to a server for processing, or rely on commercial or outdated hardware and software. In contrast, our platform turns a smartphone into the brain of a fully autonomous robot with onboard sensing and computation.”

With this approach, Intel researchers have leveraged the advantages of today’s smartphones to enable navigation and real-time sensing and computation for a wheeled robot body that costs less than $50. The features of smartphones that make this possible include advanced imaging technology, processing power, navigation, connectivity, sensors, AI accelerators for neural network inference, rapidly upgraded and evolving software and hardware ecosystems. In turn, the ‘OpenBot’ is capable of advanced applications such as person following and autonomous navigation.

While a large part of the cost, about 40%, is that of the batteries, the price can be further reduced by scaling production, as more units are made. The top plate with the phone mount and the bottom cover, weighing 146g and 103g respectively, are 3D printed in PLA and take about 23 hours in total to 3D print using an Ultimaker.

Image Courtesy of Intel Labs

The Android application allows for connectivity, processing and audiovisual sensory inputs (camera, gyroscope, accelerometer, magnetometer, ambient light sensor, barometer). Common game controllers can be connected via Bluetooth to remotely operate the OpenBot. The learning-based algorithms, unlike classic motion planning algorithms, uses neural network processing to detect objects or people, and navigate autonomously.

OpenBot smartphone-based system                                                                                                                                          Image Courtesy of Intel Labs

Explaining the difference it makes in using an widely available, constantly upgraded, open-platform such as Android, as opposed to specific custom software solutions, the study states,

“In contrast to other robots, our platform has an abundance of processing power, communication interfaces, and sensors provided by the smartphone. Existing robots often rely on custom software ecosystems, which require dedicated lab personnel who maintain the code, implement new features, and implement drivers for new sensors. In contrast, we use Android, one of the largest constantly evolving software ecosystems. All the low-level software for sensor integration and processing already exists and improves without any additional effort by the robotics community. All sensors are already synchronized on the same clock, obviating what is now a major challenge for many existing robots.”

Comparison of Wheeled-robotics solutions                                                                                                                            Image Courtesy of Intel Labs

The advantages of this approach to improving the accessibility and scalability in robotics is more than obvious when comparing the features and specifications across wheeled-robotics platforms. With nearly all the features available, an open Android operating system, using any smartphone available today, not only to control, but to drive learning-based algorithms and AI-based applications in person following and autonomous navigation, and its cost-effectiveness, the OpenBot from Intel Labs is leaps and bounds ahead of any other low-cost robotic solution available publicly.

The post Intel Develops $50 3D Printed OpenBot to Advance Robotics Accessibility appeared first on 3DPrint.com | The Voice of 3D Printing / Additive Manufacturing.

Relativity Partners with mu Space, with Plans to Launch 3D Printed Terran 1 Rocket into Low Earth Orbit

3D printed rocket manufacturer Relativity Space, based in Los Angeles and backed by VC funding, signed its first public, multi-year commercial contract with satellite services vendor Telesat earlier this month. Now the company, which has grown from from 14 to 83 employees in the last year, has announced its second deal, this time with Thai satellite and space technology company mu Space. Together, the two will launch a satellite on Relativity’s Terran 1 rocket to Low Earth Orbit (LEO).

The Terran 1, which features a flexible architecture, was fabricated using Relativity’s patented technology platform on its giant Stargate 3D printer, which features 18-foot-tall robotic arms that use lasers to melt metal wire and can help lower the part count of a typical rocket from 100,000 to just 1,000. By utilizing Relativity’s technology in this new aerospace partnership, mu Space can achieve a faster, less expensive, and more reliable launch, which will help usher in a transformation in the satellite launch and services industry in the US and Asia-Pacific.

“mu Space is accelerating space technology development in Asia, and we consider the moon as the next explorable body in space beyond Earth. Relativity has the vision, team, and technology to deliver exceptional advantages in launching mu Space’s payloads, and supporting our goal of creating an interplanetary society in the future,” said mu Space’s CEO and Founder James Yenbamroong.

mu Space was founded just two years ago in Thailand, and is on a mission to lead the development of space technology, as well as encourage new space investments in the APAC region. The company is also working on developing both LEO and Geosynchronous Earth Orbit (GEO) satellite and space technologies that can hopefully increase the adoption of Internet of Things (IoT) devices in smart cities. With plans to launch its own satellite in 2021, mu Space’s LEO satellite will launch on the Terran 1 rocket in 2022 as a primary, dedicated payload.

“We’re excited to partner with mu Space, a disruptive innovator in the Asia-Pacific region, to launch their satellite and space technologies with our 3D printed Terran 1 rocket. We look forward to collaborating to strengthen the U.S. and Asia-Pacific space economy, and to advancing the future of humanity in space together with James and the entire mu Space team,” stated Tim Ellis, CEO and Co-Founder of Relativity.

L-r: mu Space CEO & Founder James Yenbamroong and Relativity Space CEO & Founder Tim Ellis stand in front of Relativity’s metal Stargate 3D printer – the largest of its kind.

Relativity, which is the first autonomous rocket factory and launch services leader for satellite constellations, has big plans to build humanity’s future in space, focusing first on rockets. Its unique platform vertically integrates 3D autonomous metal manufacturing technology, machine learning, software, and intelligent robotics to rapidly build 3D printed rockets, like the Terran 1, which will be the first rocket launched by the startup. Because the Terran 1 has far less parts and a simpler supply chain than traditional rockets, Relativity plans to build the flight-ready rocket, from raw material, in less than 60 days.

The startup is expanding its infrastructure by fourfold this year, with over 350,000 square feet of launch, operations, production, and testing facilities; this last includes securing a polar orbit-capable launch site. Adding to its list of major government partnerships, which includes membership on the National Space Council that advises the White House and a two-decade, exclusive-use Commercial Space Launch Act (CSLA) agreement at the NASA Stennis Space Center E4 test complex, Relativity recently became the first VC-backed company to gain a launch site Right of Entry from the US Air Force at Cape Canaveral Launch Complex-16.

Relativity’s new partnership with mu Space solidifies its growing leadership in the global satellite launch services industry, and also expands the shared vision between the two companies of building the future of the human race beyond our planet – mu Space wants to keep developing space technologies for safer lunar missions in order enable a moon settlement in the next decade, while Relativity wants to 3D print the first rocket on Mars and build an interplanetary society.

The first orbital test launch of Relativity’s Terran 1 rocket is currently on track to take place at the end of the year 2020.

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[Images: Relativity Space]

Mechanical Engineer Makes 95% 3D Printed Autonomous Robotic Lawn Mower

While I do know how to mow my lawn, that’s a job my husband normally takes care of. We like to divide and conquer when it comes to household chores – I do the laundry, he mows the lawn, I vacuum and he mops, et cetera, et cetera. Maybe I would enjoy mowing the lawn if ours was bigger and I could use a mower of the ride-on variety…I don’t know for sure, but I always imagined this would be something like a way slower go-kart (if this is untrue, don’t tell me). But German mechanical engineer and maker Philip Read recently completed a project, using Arduino and 3D printing, that makes me want to get out there and get mowing, no matter the size of my yard.

“It’s a fully autonomous Robot Lawn Mower which can be 95% 3D printed,” Read told 3DPrint.com, noting that a few small connectors will have to be made for the wheels and mower disc.

“I see you have covered this type of project in the past, but I believe this is a real upgrade in terms of design and “makeability” due to the ability to 3D print almost everything.”

Read, a self-professed RC fanatic and scratch builder who goes by ReP_AL online, is not wrong – over the years, we have definitely written stories about 3D printed parts for lawn mowers, fully 3D printed lawn mowers, and even another 3D printed robotic lawn mower.

“Its been a long project and took a lot of my time to complete,” Read wrote on Thingiverse.

“I have had many requests for parts and code etc.. and decided to relocated the build instructions and code management to my new website.”

You can find all of the build instructions and details for the little robotic lawn mower, including code, videos, and a webshop, on his website, where he explains why he is passionate about building his own robots and other machines, such as his own 3D printer.


“I like to understand the mechanics, the programming and what the electrical components do. I would like to share this passion with you, so you can build the projects too and learn about robotics,” Read wrote.

“This site will guide you through the build process of these projects so you can enjoy making them yourself..  With detailed instructions and links to the components I used, my goal is to make it possible for anyone to complete a complex robotics project and enjoy the results.”

On his website, Read rates the difficulty of his 3D printed autonomous lawn mower robot as a 7 out of 10, noting that the required skills to make the machine include soldering and 3D printing.

“The mower navigates within the boundary wire which is positioned (pinned) around the perimeter of the garden,” Read explained. “Once the mower senses the perimeter wire, it stops reverses and moves off in a new direction. The mower also has 3 sonar sensors to detect objects in the mowers path. Once the mowers battery is exhausted, the mower uses the boundary wire to navigate itself back to the charging station. All this can be customised in the Arduino software or completely re-written to your personal preferences.”

Rear control panel

According to Read, a commercial lawn mower with these kinds of specifications would cost at least €600, if not more.

The equipment required to make Read’s robotic lawn mower includes PLA material, a 3D printer with a 330 x 330 x 400 mm bed, wire strippers, and various screwdrivers and Allen wrenches. He 3D printed the lawn mower parts at 50% infill, with a 0.4 mm resolution, and notes on Thingiverse that most parts can be printed without any supports.

He also added the STL files for his lawn mower, and its optional charging station, to Thingiverse.

Will you try and make your own 3D printed robotic lawnmower? Discuss this project and other 3D printing topics at 3DPrintBoard.com or share your thoughts in the Facebook comments below.

Update On Made In Space’s 3D Printed Asteroid Spacecraft Research

California 3D printing and space technology firm Made In Space is responsible for such out of this world innovations as the first commercial 3D printer on the International Space Station, the multi-armed 3D printing space robot Archinaut, and the manufacture of the first extended 3D printed objects in a space-like environment. The company works closely with NASA, and two years ago received funding from the agency for its ambitious plan to turn asteroids into autonomous spaceships, which could help NASA finalize its long-term goal of constructing human colonies in space.

Right now, NASA can only bring back small pieces of space rock. But Project RAMA (Reconstituting Asteroids into Mechanical Automata) hopes to establish the concept feasibility of using analog computers and mechanisms – along with 3D printing – to convert asteroids into huge mechanical spacecraft, which could carry large amounts of raw asteroid material. This could be the impetus for the off-Earth mining that will be necessary if humanity wants to survive and thrive among the stars.

Artist’s illustration of an asteroid that has been turned into a giant mechanical spacecraft, which could fly itself to a mining outpost. [Image: Made In Space]

Asteroids are pretty cool – many of them contain valuable resources, such as water and platinum-group metals, and roughly 100 tons of asteroid and comet material hit the Earth’s atmosphere each day. As part of the plan to turn these massive rock formations into functioning spacecraft, Made In Space plans to send an advanced, robotic seed craft out to space, in order to to meet with several near-Earth asteroids.

This craft would then harvest space rock material and turn it into feedstock, which can be 3D printed to build energy storage, navigation, propulsion, and other important systems on-site. Once the converted asteroid is ready, it can be programmed to autonomously fly to a mining station; according to Made In Space representatives, this approach is far more efficient than having to launch new capture probes out to space rocks.

While we don’t currently have the ability or the technology to 3D print something like a digital guidance computer with materials found on an asteroid, Made In Space realized that one doesn’t have to rely on digital electronics if a huge amount of raw material, with no constraints on mass or volume, is available instead.

“At the end of the day, the thing that we want the asteroid to be is technology that has existed for a long time,” said Made In Space Co-Founder and CTO Jason Dunn. “The question is, ‘Can we convert an asteroid into that technology at some point in the future?’ We think the answer is yes.”

Two years ago, NASA’s Innovative Advanced Concepts (NIAC) program, which encourages development of space-exploration technologies, awarded Made In Space a $100,000 Phase 1 grant for nine months of initial feasibility studies. During this phase, the company focused on how the seed craft would have to work, defining its requirements, and building a technological roadmap. If the company chooses, it can also apply for a two-year, $500,000 Phase 2 award for continuing concept development. In the meantime, Made In Space is counting on NASA to push forward in-situ resource utilization (ISRU) – the art of living off the land, which is necessary for astronauts who could someday live on planetary outposts.

Required capabilities of the RAMA craft, arranged in approximate order of mass requirements, showing the source of the materials used to provide each capability as assumed for the rest of this study.

These asteroid ships will probably not look much like traditional spaceships, with their electronic circuitry and rocket engines, but instead would use analog computers and a catapult type of propulsion system that will launch asteroid material in a controlled way. By using mass drivers to shoot chunks of itself in one direction, an asteroid could potentially accelerate itself in the opposite direction. While this method is only about 10% as efficient as a chemical rocket engine, the propellant is free.

3D printing could be used to make some of the asteroid spacecraft parts, like flywheel gyros for guidance and stabilization, tanks for storing volatile materials, and solar concentrators to generate mechanical power through the release of pressure to open the tanks.

While Project RAMA is still moving forward, Dunn acknowledges that its completion is still way in the future…and that eventually, it could even have applications on Earth.

Dunn explained, “The anticipation is that the RAMA architecture is a long time line, and when it becomes capable is about the same time that people really need the resources.

“You could build infrastructure in remote locations somewhat autonomously, and convert resources into useful devices and mechanical machines. This actually could solve some pretty big problems on Earth, from housing to construction of things that make people’s lives better.”

Diagram of an asteroid that has been converted into a mechanical spacecraft by a robotic “Seed Craft.” [Image: Zoe Brinkley]

The other goal of Project RAMA is to be able to make asteroids into self-assembled spacecraft.

“One of the big questions is, how do you take today’s most intricate machines and make them replicate themselves? That seems really hard: how do you replicate electronics and processing units and so on,” Dunn said. “And that’s when we had this concept that there are types of machines that could potentially be easy to self-replicate, and those would be very basic, analog type devices. The problem is if you have a small mechanical machine, it’s not very useful. But what if the machine itself was the size of an asteroid? What could you do with a mechanical machine that large?”

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