NASA Selects Advanced Futuristic Space Technology Concepts for Early Study TOPICS:JPLNASA

Phase II fellow Zac Manchester of Carnegie Mellon University will continue his work on a concept for artificial gravity in space using a kilometer-size rotating structure. After launching on a single rocket, the proposed structure would deploy to 150 times its original size, becoming a huge rotating habitat that would provide artificial gravity equal to Earth’s gravity in some parts of the structure.

The selected Phase II projects include a design for small climbing robots that could explore subsurface caves on Mars, a novel way of using nuclear power for spacecraft, and a concept for a swarm of 3D-printed swimming micro-robots that could explore ocean worlds like  Europa, and Titan.

“As in years past, our new group of showcases the creativity and vision of the space community at large,” said Michael LaPointe, acting program executive  program at NASA Headquarters.

A concept proposed by Sara Seager of the Massachusetts Institute of Technology would help scientists study a planet much closer to home: Venus. A probe would parachute into the planet’s atmosphere to capture a sample of gas and clouds. The sample would be brought to Earth, where scientists could look for signs of life in Venus’ atmosphere – one of the few potential places it could survive on the otherwise hot, high-pressure planet.

The new Phase I projects include a novel design for a crewed spacecraft that provides more protection from radiation on long journeys than conventional crew modules, a concept for a completely silent electric airplane, and an idea for a spacecraft that could harness the Sun’s heat to propel it out of the solar system at unprecedented speeds.

John Mather, Nobel laureate and astrophysicist at NASA’s Goddard Space Flight Center in Greenbelt, Maryland, proposes a concept that could help humanity study distant, Earth-like exoplanets. A football field-size starshade in space would be aligned with ground-based telescopes, blocking out the light from distant stars and allowing astronomers to search for signs of life in the atmospheres of planets in other star systems.

The selected concepts include 12 new projects for Phase I study, as well as five Phase II awards that will allow researchers to continue their prior work on innovative concepts. The projects are still in the early stages of development and are not considered official NASA missions. Phase I fellows will each receive $175,000 for a nine-month study, and Phase II fellows will receive $600,000 each for study over a two-year period.

“NASA’s mission to explore the universe requires new technologies and new ways of doing things,” said Jim Reuter, associate administrator for NASA’s Space Technology Mission Directorate (STMD) at the agency’s headquarters in Washington. “Studying these creative ideas is the first step to turn science fiction into science fact.”

The NASA Innovative Advanced Concepts (NIAC) program fosters exploration by funding early-stage studies to evaluate technologies that could support future aeronautics and space missions. A new slate of awards will provide a total of $5.1 million to 17 researchers from nine states.

The selected concepts include 12 new projects for Phase I study, as well as five Phase II awards that will allow researchers to continue their prior work on innovative concepts. The projects are still in the early stages of development and are not considered official NASA missions.

John Mather, Nobel laureate and astrophysicist at NASA's Goddard Space Flight Center in Greenbelt, Maryland, proposes a concept that could help humanity study distant, Earth-like exoplanets. A football field-size starshade in space would be aligned with ground-based telescopes, blocking out the light from distant stars and allowing astronomers to search for signs of life in the atmospheres of planets in other star systems.

A concept proposed by Sara Seager of the Massachusetts Institute of Technology would help scientists study a planet much closer to home: Venus. A probe would parachute into the planet’s atmosphere to capture a sample of gas and clouds. The sample would be brought to Earth, where scientists could look for signs of life in Venus’ atmosphere – one of the few potential places it could survive on the otherwise hot, high-pressure planet.

 

 

 

Enjoyed this article? Stay informed by joining our newsletter!

Comments

You must be logged in to post a comment.

About Author

M.E. structural engineering