Suggested Searches

10 min read

NASA Ames Astrogram – May 2020

Astrogram banner

VIPER Moon Rover’s Instruments Tested for Early Lunar Flight

by Gianine Figliozzi

When NASA’s new Moon rover, VIPER, lands on the lunar surface to begin its hunt for water ice at the poles, it will be equipped for the job with instruments that have already been battle-tested in this harsh environment.

Prior to the launch of VIPER, the Volatiles Investigating Polar Exploration Rover, versions of these instruments will have flown as payloads on two earlier deliveries to the Moon by commercial providers under NASA’s Commercial Lunar Payload Services initiative. The goal of these CLPS deliveries is to perform science experiments, test technologies and demonstrate capabilities to help NASA explore the Moon and prepare for human missions beginning in 2024.

“These payload deliveries under CLPS give us a ‘sneak peek’ of the instruments’ performance in the very challenging environment of the Moon. We will study the instrument’s performance carefully in order to best prepare for our own use of them on the VIPER mission, greatly reducing our own mission risk,” said Dan Andrews, VIPER’s project manager at NASA’s Ames Research Center in California’s Silicon Valley. 

Integration engineer, Amanda Cook, uses ultraviolet light to inspect infrared detectors.
Engineers at NASA’s Ames Research Center in California’s Silicon Valley assemble the Near-Infrared Volatile Spectrometer System in preparation for its 2021 flight to the Moon. While assembling the instrument inside the NIRVSS clean room, integration engineer Amanda Cook uses ultraviolet light to inspect the four infrared detectors on the NIRVSS Longwave Calibration Sensor for cleanliness, before fastening the board into its enclosure.
Credit: NASA Ames/Dominic Hart

For full story, see: ViperRover

NASA Supercomputers Power COVID-19 Research

by Ellen Gray

NASA is flexing its supercomputing muscle to help crack some of the most pressing questions surrounding COVID-19, from basic science on how the virus interacts with cells in the human body to genetic risk factors to screening for potential therapeutic drugs.

In addition to its support of Earth, planetary, aerospace, heliophysics and astrophysics projects, the agency’s supercomputer at NASA’s Ames Research Center in California’s Silicon Valley, also has an allocation of time on it reserved for national priorities.

Photo of rows of computer racks that make up the Pleiades supercomputer
Pleiades’ rack-based architecture allows NASA to continually increase the system’s computing capability through hardware upgrades without needing to expand its physical footprint. The current configuration of Pleiades is nearly fifteen times more powerful than it was when the system was originally installed in 2008.
Credit: NASA Ames

For full story, see: Supercomputer/COVID-19

Ames Contributions to SpaceX Commercial Crew Missions

by Gianine Figliozzi

A new era of human spaceflight is set to begin as American astronauts once again launch on an American rocket from American soil to the International Space Station as part of NASA’s Commercial Crew Program – the first time since the retirement of the Space Shuttle Program in 2011.

Commercial crew partner SpaceX will carry humans to the space station, like a taxi or a rideshare service, shuttling people to their destination and home again. NASA’s goal is to become one customer of many customers in a robust low-Earth orbit economy, enabling the agency to realize the next generation of human space exploration through the Artemis program to the Moon and on to Mars.

spacex_falcon_9_rollout2.jpg
A SpaceX Falcon 9 rocket with the company’s Crew Dragon spacecraft onboard is seen as it is rolled to the launch pad at Launch Complex 39A.
Credit: NASA/Joel Kowsky

For full story, see: AmesSpaceX

Top Ten Discoveries from the Stratospheric Observatory for Infrared Astronony (SOFIA)

by Kassandra Bell

Ten years ago, NASA’s telescope on an airplane, the Stratospheric Observatory for Infrared Astronomy, or SOFIA, first peered into the cosmos. Since the night of May 26, 2010, SOFIA’s observations of infrared light, invisible to the human eye, have made many scientific discoveries about the hidden universe.

SOFIA’s maiden flight, known as “first light,” observed heat pouring out of Jupiter’s interior through holes in the clouds and peered through the dense dust clouds of the Messier 82 galaxy to catch a glimpse of tens of thousands of stars forming. The observatory was declared fully operational in 2014 — the equivalent to the launch of a space telescope — but it began making discoveries even while completing the testing of its instruments and telescope.

Image of planetary nebula NGC 7027 also includes an illustration of helium hydride molecules.
Image of planetary nebula NGC 7027 also includes an illustration of helium hydride molecules. In this planetary nebula, SOFIA detected helium hydride, a combination of helium (red) and hydrogen (blue), which was the first type of molecule to ever form in the early universe. This is the first time helium hydride has been found in the modern universe.
Credit: NASA/ESA/Hubble Processing: Judy Schmidt

For full story, see: SOFIAdiscoveries

NAS Researchers Bring Asteroid Simulation Down to Earth

by Michelle Moyer

This is first of a two-part series on the NAS Division’s latest research supporting U.S. asteroid threat assessment efforts.

If you were standing on the southern coast of Spain just after midnight on February 22, 2020, you would have been dazzled by a brilliant fireball a hundred times brighter than Venus streaking across the night sky. Disappearing harmlessly 30 kilometers above the Mediterranean Sea, the meteor was one of millions that burn up in Earth’s protective atmosphere every day—most as small as dust particles.

Once in a while, a larger one gets far enough through the atmosphere to affect the planet’s surface, either explosively breaking up in the air, creating a blast wave that propagates to the ground, or impacting the ground itself. Predicting what happens next is where researchers working in the NASA Advanced Supercomputing (NAS) Division come in. As part of NASA’s Asteroid Threat Assessment Project (ATAP) team, these researchers run millions of hypothetical airburst and impact scenarios on supercomputers at the NAS facility, located at NASA’s Ames Research Center in Silicon Valley. Using their Probabilistic Asteroid Impact Risk (PAIR) model, they estimate the effects of blast waves, thermal radiation, tsunamis, and global climatic effects that could result from such impacts.

atap_carousel.png
Simulation of a 120-meter asteroid entering the atmosphere at 20 kilometers per second (km/s) and impacting the ground, releasing the energy equivalent of about 100 megatons of TNT. After the impact occurs, the blast wave propagates over the region (colored by contours of local Mach number). The recoil up the entry corridor and blast from the ground impact are clearly visible.
Credit: Michael Aftosmis, Marian Nemec, NASA

For full story, see: NASAsteroidSimulation

Chemist Audrey Miyamoto Prepares Apollo 11 Sample for Analysis

Chemist Audrey Miyamato holding a tube containing an Apollo lunar sample.
Chemist Audrey Miyamoto preparing an Apollo lunar sample to analyze for amino acids at NASA’s Ames Research Center.
Credit: NASA/Zabower

This is one of a series of photos from 1969 that shows researchers at NASA’s Ames Research Center examining samples of Moon rocks and soil and that astronauts brought back from the Apollo 11 mission. The researchers are looking for signs of life endemic to the Moon, as well as organic compounds that are the basic building blocks of life. Of course, no lunar life was found in these samples, and we now know that the Moon does not harbor life. Nevertheless, these tests became the first time that NASA looked for the possibility of life existing on another world using samples from that world.

Learn more about the Lunar Biological Lab at NASA Ames.

NASA Builds on Investments in US Small Business’ Beneficial Technologies

by Tiffany Blake

NASA has selected 139 proposals for follow-on funding though the agency’s Small Business Innovation Research (SBIR) program. The Phase II awards will provide approximately $104 million to 124 small businesses located across 31 states.

NASA annually invests in U.S. small businesses with promising new technologies – companies developing better batteries, virtual assistants, lightweight materials and more. These technologies can benefit space missions, as well as improve life on Earth.

“Small businesses offer innovative solutions that benefit every area of NASA and often find applications outside of the agency,” said Jim Reuter, associate administrator for NASA’s Space Technology Mission Directorate in Washington. “This announcement is another step forward in NASA’s Moon to Mars exploration approach. The agency continues to invest in and support small businesses, as they continue to mature important technologies for future missions that can also benefit us on Earth.”

Illustration showing Moon in the foreground with Mars in the background
NASA’s Artemis program is part of the agency’s broader Moon to Mars exploration approach to explore more of the Moon and prepare for the next giant leap – human exploration of Mars.
Credit: NASA

For full story, see: BeneficialTech

SOFIA Finds Clues Hidden in Pluto’s Haze

by Kassandra Bell

When the New Horizons spacecraft passed by Pluto in 2015, one of the many fascinating features its images revealed was that this small, frigid world in the distant solar system has a hazy atmosphere. Now, new data helps explain how Pluto’s haze is formed from the faint light of the Sun 3.7 billion miles away as it moves through an unusual orbit.

Remote observations of Pluto by NASA’s telescope on an airplane, the Stratospheric Observatory for Infrared Astronomy, or SOFIA, show that the thin haze enshrouding Pluto is made of very small particles that remain in the atmosphere for prolonged periods of time rather than immediately falling to the surface. SOFIA’s data clarify that these haze particles are actively being replenished – a discovery that is revising predictions on the fate of Pluto’s atmosphere as it moves into even colder areas of space on its 248-Earth-year orbit around the Sun. The results are published in the scientific journal Icarus.

Still animation showing a ring of light around Pluto as it was backlit by a star.
Still image from an animation illustrating Pluto passing in front of a star during an eclipse-like event known as an occultation. SOFIA observed the dwarf planet as it was momentarily backlit by a star on June 29, 2015 to analyze its atmosphere.
Credit: NASA

For full story, see: SOFIAPluto

Testing on the Ground Before You Fly: Wind Tunnels at NASA Ames

by Abigail Tabor

What is a wind tunnel? If you’ve ever flown on a plane, you’ve probably been in a vehicle that NASA helped develop. Because before something can fly in the sky, it needs to “fly” on the ground – and for that you need a wind tunnel. Several of these often huge and essential facilities are found at NASA’s Ames Research Center in California’s Silicon Valley – including the biggest (two!) in the world.

A wind tunnel works by moving air past a stationary object, making it seem like the object is flying. The tunnel is essentially a giant tube with air flowing through it, usually moved along by fans. Important studies of aircraft, spacecraft and related components take place in the test section, a narrower part of the tube where the air flows very smoothly over a test object. This is usually a scaled-down model, but can even be a full-size vehicle. During a test, wind tunnel engineers measure how the design responds “in flight,” observing its stability, aerodynamic performance and more.

NFAC 80-foot-by-120-foot wind tunnel drive fans
NFAC 80-foot-by-120-foot wind tunnel drive fans.
Credit: NASA Ames/Tom Trower

For full story, see: AmesWindTunnels

Astronauts Leave “Microbial Fingerprint” on Space Station

by Abigail Tabor

When a new crew member arrives on the International Space Station, the population of humans living in space changes – of course. But so, too, does the population of microbes. Countless types of microorganisms inhabit our bodies, inside and out, and when an astronaut arrives on the station, they bring their specific collection of microbial “hitchhikers” with them. A new study shows that the microorganisms living on surfaces inside the space station so closely resembled those on an astronaut’s skin that scientists could tell when this new crew member arrived and departed, just by looking at the microbes left behind. The findings show how keeping an eye on the tiniest space station residents will be important for protecting the health of astronauts and the spacecraft they occupy. It could even tell us something about relatively closed environments on Earth, like hospitals, where understanding the presence of microbes is key.

Astronaut wipes down surface inside space station

For full story, see: MicrobialFingerprint

Drones for Disaster Response: NASA STEReO Project Kicks Off

by Abigail Tabor

Natural disasters, like wildfires and hurricanes, can lead to many lives lost and billions of dollars in costs across the U.S. each year. To help reduce that impact, drones have great potential to assist emergency responders by making their interventions even faster, more targeted and better able to adapt to changing circumstances. Also known as unmanned aircraft systems, or UAS, these vehicles and the systems that support them could multitask in unique ways, for instance by using software to track firefighters on the ground before dropping forest fire retardant a safe distance away. A new NASA project, called Scalable Traffic Management for Emergency Response Operations, or STEReO, is working on the tools needed to make this a reality. The team and its many collaborators kicked the project into gear with a workshop in February 2020.

While STEReO is conceived and led by NASA’s Ames Research Center in California’s Silicon Valley – and builds on NASA’s research in drone traffic management, human factors, vehicle autonomy and communications – a variety of partners will be essential to making it work.

A man speaks in front of a large screen showing flight-planning and drone traffic management software.
Application specialist and aviation consultant George Lawton speaks at the first workshop of the Scalable Traffic Management for Emergency Response Operations, or STEReO, project, Feb. 12, 2020, at NASA’s Ames Research Center in California’s Silicon Valley. The screen behind Lawton shows the connection that can be made between a popular open-source flight-planning platform and prototype services for traffic management of unmanned aerial vehicles from Ames’ Airspace Operations Laboratory.
Credit: NASA Ames/Dominic Hart

For full story, see: STEReO

NASA Airborne Science Interns Garthering Data at Home

by Emily Schaller

Every summer since 2009, the NASA Student Airborne Research Program (SARP) has brought about 30 undergraduate STEM students from across the United States to California for an internship experience with NASA Earth Science research that includes flights on a research aircraft. This year with COVID-19 travel and social distancing restrictions in place, SARP might be grounded but the internship continues with new at-home data collection as well as the analysis of previously collected aircraft, ground and satellite data.

In February, 28 undergraduates were selected for the SARP class of 2020 from hundreds of applicants from U.S. educational institutions. In the weeks after their selection, it became clear that the ability of the students to travel to California and participate in the airborne research was uncertain due to the COVID-19 pandemic.

Alex Jarnot prepares air sampling canisters for shipment to all NASA SARP interns.
Alex Jarnot from the Rowland/Blake laboratory at the University of California Irvine prepares air sampling canisters for shipment to all NASA SARP interns.
Credit: Alex Jarnot/UCI

For full story, see: ScienceInterns

Statistical Summary of Activities of the Protective Service Division’s Security/Law Enforcement and Fire Protection Services Units for Period Ending April 2020

SecurityApril2020Chart