NASA Supports ‘Wild’ Ideas to Bring About New Space Tech

Swarm-Probe Enabling ATEG Reactor, or SPEAR, is a nuclear electric propulsion spacecraft concept that proposes a new, lightweight reactor moderator and advanced thermoelectric generators to deliver scientific payloads to anywhere in the solar system. SPEAR was selected in April 2019 as a NIAC Phase I. (Credit: Howe Industries LLC)

WASHINGTON, DC (NASA PR) — NASA has a wild side. In fact, the agency has a program dedicated to nurturing visionary ideas that could transform future NASA missions with the creation of breakthroughs—radically better or entirely new aerospace concepts.

For years, NASA Innovative Advanced Concepts (NIAC) has supported early-stage research through multiple phases of study, competitively selecting Phase I and follow-on Phase II projects each year.

Phase I studies are nine-month efforts to explore the overall feasibility of innovative aerospace concepts proposed within a mission context. Eligible recipients of Phase I awards who apply and receive subsequent Phase II funding further develop the most promising ideas for up to two years. This advances the technology readiness level of the concepts – how ready they are to be integrated into a spaceflight mission – and explores transition paths within NASA and beyond.

Now, recently announced NIAC Phase III studies have been awarded to strategically fund a small subset of Phase II concepts with clear transition paths and high potential impact to NASA programs, other government agencies or commercial partners.

Focus areas

In April, NASA announced the 2019 NIAC Phase I and Phase II selections, which include researching concepts for a mission to hellish Venus, highly-mobile and ultra-smart spacesuits, options to power miniature spacecraft for interstellar fly-bys, and the use of special materials to “solar surf” that could allow for dramatic, closer approaches to the Sun.

For the first-ever Phase III selections, announced in June, the two focus areas tell the story of innovation and transition potential: asteroid mining technologies to enable space industrialization and human settlement and robotic technologies to enable the exploration of lunar pits, or craters.

Harvesting space resources

Illustration of the Mini Bee mission concept, a 2019 NIAC Phase III. (Credits: TransAstra Corporation)

Phase III selectee, TransAstra, is a space resources harvesting company. Along with funds from industry, the $2 million NIAC award makes possible the development and ground testing of a small satellite technology demonstration flight system.

The TransAstra Mini Bee is designed to fly into low-Earth orbit on a commercial piggyback launch. Another entrepreneurial space company, Momentus, will provide the spacecraft. Once in place, Mini Bee will capture a small artificial asteroid to showcase TransAstra’s patent pending and breakthrough concept of optical mining.

“Optical mining makes it possible to harvest hundreds of tons per year of water from near-Earth asteroids and return that water for use as rocket propellant for in-space transportation services at a fraction of the cost of launching water from Earth,” explains Joel Sercel, chief executive officer at TransAstra and chief technology officer at Momentus.

“We could not be more thrilled that NASA selected TransAstra, Momentus, and our other industry partners to work together to build the Mini Bee system,” Sercel adds. “NASA’s investment in this area is further validation of the importance of water as a propellant for transportation in space and the importance of near-Earth asteroids as a cost-effective source of that water.”

Rim shots

Illustration of the Skylight mission concept, a 2019 NIAC Phase III. (Credits: William Whittaker, Carnegie Mellon University)

Also receiving a NIAC Phase III award is robotic pioneer, William “Red” Whittaker, a professor at Carnegie Mellon University’s Robotics Institute.

Whittaker’s NIAC-supported work appraises use of one or more “smart and speedy” robots to inspect and quickly generate on-the-spot, computer-generated models of craters on the Moon. These craters, up to now only spotted by Moon-orbiting spacecraft, may be sites of caves that could offer future explorers underground shelter, as well as access to minerals, ice and other resources.

The mission envisioned by Whittaker and his team is dubbed Skylight.

“The game is on,” underscores Whittaker in terms of renewed human exploration of the Moon with NASA’s Artemis program by way of public-private partnerships. “NIAC is that special place in NASA that lets a thousand flowers bloom.”

It is essential to develop small autonomous robots, Whittaker says, self-thinking machinery that’s fast and can achieve lunar crater investigations in just a week. After that period of time, he points out that the solar-energized equipment would be exposed to the ultra-chilly lunar night that would permanently disable them.

“The idea here is that a rover coming onto a pit is akin to seeing the Grand Canyon for the first time,” observes Whittaker. “The robot will be constantly reasoning to occupy the vantage points at the pit’s rim and game the risk. Acquiring thousands of images, the robot would generate high-fidelity scientific models that are the purpose of this exploration.”

Risk reduction

“NIAC Phase III provides a really interesting opportunity for NASA,” says Jason Derleth, NIAC’s program executive at NASA Headquarters in Washington. “NIAC solicits technology breakthroughs from those who come up with incredibly innovative ideas. Sometimes, though, no matter how wonderful the end product might be, there’s just too much risk for a mission to adopt using that technology.”

That risk reduction for a specific mission use is what Phase III is all about. “Our goal in NIAC is that most of the Phase III technologies and those proposing them will work with flight project managers or external companies to move these ‘almost science fiction’ technologies solidly into the realm of science fact,” says Derleth.

Changing the future

“Phase III is not to be viewed as a natural extension of Phase II. It is intended to be an exception for those NIAC concepts that show significant potential and have a high likelihood for transition, but just need an additional push to enable implementation. Typically, we anticipate funding one Phase III award per year, this inaugural year being an exception,” explains Ron Turner, NIAC senior science advisor.

Turner emphasizes that Phase III does not signal that NIAC is changing its focus to more near-term innovation. “The program still seeks innovation wherever it can change the future,” Turner observes.

Overwhelmingly positive

NIAC received considerable interest in the new Phase III opportunity.

“The response has been overwhelmingly positive, with the additional time and money of Phase III regarded as a crucial next step to help transition the most promising technologies into NASA missions and other government and national industry applications,” says Katherine Reilly, NIAC’s strategic partnerships manager.

This year, the 2019 NIAC Symposium will feature NIAC fellows’ presentations on the status of the current portfolio of NIAC studies, addressing an inspiring suite of diverse research areas, including human systems and architectures for extreme environments, evolutionary exploration systems and novel propulsion concepts.

The NIAC Symposium will be held on Sept. 24-26 in Huntsville, Alabama. Stimulating and thought-provoking keynote presentations will be given from experts in aeronautics and advanced technologies and further information will be discussed regarding the latest news about NIAC’s exciting progress and plans. The 2019 NIAC Symposium presentations can be viewed online.

For more information on attending the 2019 NIAC Symposium, visit:

https://www.nasa.gov/content/niac-symposium

NIAC is a component of NASA’s Space Technology Mission Directorate. To learn more about NASA’s investments in space technology, visit:

https://www.nasa.gov/directorates/spacetech/home/index.html