Space Medicine, Lab Upkeep Top Thursday’s Station Schedule

Space Medicine, Lab Upkeep Top Thursday’s Station Schedule

The first rays of an orbital sunrise illuminate Earth's atmosphere in this photograph from the space station as it orbited above the Pacific Ocean near Chile's Patagonia coast.
The first rays of an orbital sunrise illuminate Earth’s atmosphere in this photograph from the space station as it orbited above the Pacific Ocean near Chile’s Patagonia coast.

Space medicine, spacesuits, and eye checks filled the schedule aboard the International Space Station on Thursday. Cargo operations and life support maintenance rounded out the day as the Expedition 72 crew awaits the departure of four crewmates.

Scientists are continually using the orbiting lab’s microgravity environment to explore new phenomena not possible on Earth to promote industry and human health. Thursday’s space research explored ways to improve treatments for patients on Earth and keep astronauts healthy on long-term missions.

NASA Flight Engineer Butch Wilmore serviced samples and observed how fluids flow using capillary force to understand how liquid drugs are transported in the lungs. Results may benefit the health care and food industries with improved respiratory therapies and better contamination prevention techniques.

NASA Flight Engineers Matthew Dominick and Don Pettit worked on advanced research gear ensuring it remains operable for high-quality results. Dominick organized the hardware inside the BioServe centrifuge that supports a range of science from DNA studies, to materials research, and more in space. Pettit replaced cables on the Cell Biology Experiment Facility, an incubator with an artificial gravity generator. Pettit also collected and stowed his urine samples in a science freezer for later analysis. He finally joined Flight Engineer Nick Hague for eye exams using medical imaging gear with assistance from doctors on the ground. Hague earlier relocated air sensors from the Destiny laboratory module to the Tranquility module.

Lab maintenance is also key aboard the orbital outpost to ensure ongoing science operations and healthy crews. Commander Suni Williams and Flight Engineer Jeanette Epps, both NASA astronauts, serviced thermal systems and orbital plumbing components, while also organizing food stowed in the Unity module. NASA Flight Engineer Mike Barratt spent his shift in the Quest airlock dumping and filling spacesuit water tanks then  cleaning Quest’s smoke detectors.

Roscosmos Flight Engineer Ivan Vagner completed his 24-hour heart monitoring session on Thursday and handed over the sensors to Flight Engineer Alexey Ovchinin so he could record his heart rate. Vagner also swapped out orbital plumbing gear in the Nauka science module while Ovchinin replaced hydraulic pumps in the Zvezda service module. Flight Engineer Alexander Grebenkin continued photographing crew activities for documentation while Flight Engineer Aleksandr Gorbunov jogged on a treadmill for a regularly schedule fitness evaluation.

NASA and SpaceX mission managers continue monitoring weather conditions off the coast of Florida and are now targeting no earlier than 3:05 a.m. EDT on Sunday for the undocking of NASA’s SpaceX Crew-8 mission aboard Dragon Endeavour.


Learn more about station activities by following the space station blog, @space_station and @ISS_Research on X, as well as the ISS Facebook and ISS Instagram accounts.

Get weekly video highlights at: https://roundupreads.jsc.nasa.gov/videoupdate/

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Mark Garcia

NASA Selects Two Teams to Advance Life Sciences Research in Space 

NASA Selects Two Teams to Advance Life Sciences Research in Space 

3 min read

NASA Selects Two Teams to Advance Life Sciences Research in Space 

NASA announced two awards Thursday to establish scientific consortia – multi-institutional coalitions to conduct ground-based studies that help address the agency’s goals of maintaining a sustained human presence in space. These consortia will focus on biological systems research in the areas of animal and human models, plants, and microbiology. When fully implemented, the awards for these consortia will total about $5 million. 

Space biology efforts at NASA use the unique environment of space to conduct experiments impossible to do on Earth. Such research not only supports the health and welfare of astronauts, but results in breakthroughs on diseases such as cancer and neurodegenerative disorders to help protect humanity down on the ground.  

The awards for the two consortia are for the following areas:  

  • Studying space biosphere. The Biology in Space: Establishing Networks for DUrable & REsilient Systems consortium involves a collaborative effort between human/animal, plant, and microbial biologists to ensure an integrated view of the space flight biosphere by enhancing data acquisition, modeling, and testing. It will include participation of more than thirty scientists and professionals working together from at least three institutions. Led by Kristi Morgansen at the University of Washington in Seattle, Washington.   
  • Converting human waste into materials for in-space biomanufacturing. The Integrative Anaerobic Digestion and Phototrophic Biosystem for Sustainable Space Habitats and Life Supports consortium will develop an anaerobic digestion process that converts human waste into organic acids and materials that can be used for downstream biomanufacturing applications in space. It will include eight scientists from six different institutions in three different states, including Delaware and Florida. The consortium is led by Yinjie Tang at Washington University in St. Louis, Missouri.   

Proposals for these consortia were submitted in response to ROSES 2024 Program Element E.11 Consortium in Biological Sciences for a consortium with biological sciences expertise to carry out research investigations and conduct activities that address NASA’s established interests in space life sciences.  

NASA’s Space Biology Program within the agency’s Biological and Physical Sciences division conducts research across a wide spectrum of biological organization and model systems to probe underlying mechanisms by which organisms acclimate to stressors encountered during space exploration (including microgravity, ionizing radiation, and elevated concentrations of carbon dioxide). This research informs how biological systems regulate and sustain growth, metabolism, reproduction, and development in space and how they repair damage and protect themselves from infection and disease. 

For more information about NASA’s fundamental space-based research, visit https://science.nasa.gov/biological-physical

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Oct 17, 2024
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I Am Artemis: Sarah Ryan

I Am Artemis: Sarah Ryan

NASA Human Landing System Program Raptor engine insight lead Sarah Ryan poses in front of a model of SpaceX’s Starship human landing system. Sarah is in a navy shirt and khaki pants. She poses with her arms crossed in front of her chest. The black and white lander is just over her right shoulder.
NASA’s Sarah Ryan is the Raptor engine lead for NASA’s HLS (Human Landing System) Program at NASA’s Marshall Space Flight Center in Huntsville, Alabama.
“With Artemis, we’re moving beyond what NASA did with Apollo and that’s really inspiring, especially to our younger workforce. We’re trying to push farther and it’s really going to drive a lot of technology development on the way there,” Ryan said. “This is a dream come true to be working on Artemis and solving problems so humanity can get back to the Moon then on to Mars.”
NASA/Ken Hall

A passion for puzzles, problem-solving, and propulsion led Sarah Ryan – a native of Columbus, Ohio – to her current position as Raptor engine lead for NASA’s HLS (Human Landing System) insight team at NASA’s Marshall Space Flight Center in Huntsville, Alabama. The SpaceX Raptor rocket engine powers the company’s Starship and Super Heavy rocket. SpaceX will land astronauts on the Moon for NASA’s Artemis III and Artemis IV missions using the Starship HLS. NASA’s Artemis campaign aims to land the first woman, first person of color, and first international partner astronaut on the Moon.

“My team looks at how the components of the Raptor engine work together. Then, we evaluate the performance of the full system to make sure it will accomplish the NASA HLS and Artemis missions,” Ryan said. “I get to see lots of pieces and parts of the puzzle and then look at the system as a whole to make sure it meets NASA’s needs.”

While earning a bachelor’s degree from Case Western Reserve University in Cleveland with a dual major in aerospace engineering and mechanical engineering, Ryan had an internship at NASA Marshall, working on a payload for a science mission onboard the International Space Station.

After working for a year on satellite design, Ryan returned to NASA Marshall. She noted that the opportunity to work in Marshall’s Engine Systems branch, to be involved with pushing technology forward, and to work on Artemis, really drew her back to NASA. Ryan later earned a master’s degree in aerospace systems from the University of Alabama in Huntsville.

When not occupied with rocket engine development, Ryan likes to work on quieter hobbies in her free time, including reading, board games, crocheting, and solving all manner of puzzles – crosswords, number games, word games, and more. Her interest for solving puzzles carries over into her work on the Raptor rocket engines for HLS.

“My favorite tasks are the ones that most resemble a puzzle, Ryan said. “If we’re investigating an issue and have a lot of information to assess, I love putting all the pieces together and figuring out what happened, why, and the path forward. I enjoy digging into the data and solving those puzzles.”

With Artemis, NASA will explore more of the Moon than ever before, learn how to live and work away from home, and prepare for future human exploration of Mars. NASA’s SLS (Space Launch System) rocket, exploration ground systems, and Orion spacecraft, along with the HLS, next-generation spacesuits, Gateway lunar space station, and future rovers are NASA’s foundation for deep space exploration.

For more on HLS, visit: 

https://www.nasa.gov/humans-in-space/human-landing-system

Corinne Beckinger 
Marshall Space Flight Center, Huntsville, Ala. 
256.544.0034  
corinne.m.beckinger@nasa.gov 

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Lee Mohon

NASA Goddard Hosts Former VP Al Gore to Mark 10 Years of DSCOVR Mission

NASA Goddard Hosts Former VP Al Gore to Mark 10 Years of DSCOVR Mission

Environmentalist and former Vice President Al Gore visited NASA’s Goddard Space Flight Center in Greenbelt, Maryland, on Oct. 16, 2024, to commemorate the upcoming 10th anniversary of the DSCOVR (Deep Space Climate Observatory) mission.

“The image of our Earth from space is the single most compelling iconic image that any of us have ever seen,” Gore said at a panel discussion for employees. “Now we have, thanks to DSCOVR, 50,000 ‘Blue Marble’ photographs … To date there are more than 100 peer-reviewed scientific publications that are based on the unique science gathered at the L1 point by DSCOVR. For all of the scientists who are here and those on the teams that are represented here, I want to say congratulations and thank you.”

Following Gore’s talk on climate monitoring, Goddard scientists participated in a panel discussion, “Remote Sensing and the Future of Earth Observations,” which explored the latest advancements in technology that allow for the monitoring of the atmosphere from space and showcased how Goddard’s research drives the future of Earth science.

Gore’s visit also entailed a meeting with the DSCOVR science team, a view into the clean room where Goddard is assembling the Roman Space Telescope, and a stop at the control center for PACE: NASA’s Plankton, Aerosol, Cloud, ocean Ecosystem mission.

Launched Feb. 11, 2015, DSCOVR is a space weather station that monitors changes in the solar wind, providing space weather alerts and forecasts for geomagnetic storms that could disrupt power grids, satellites, telecommunications, aviation and GPS.

DSCOVR is a joint mission among NASA, the National Oceanic and Atmospheric Administration (NOAA), and the U.S. Air Force. The project originally was called Triana, a mission conceived of by Gore in 1998 during his vice presidency.

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Oct 17, 2024

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Rob Garner
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Rob Garner

NASA’s C-130 Aircraft En Route to India in Support of NISAR Mission

NASA’s C-130 Aircraft En Route to India in Support of NISAR Mission

2 min read

Preparations for Next Moonwalk Simulations Underway (and Underwater)

A C-130 aircraft with four propellors is parked on the yellow painted lines of an airfield.
NASA’s C-130 Hercules is prepared for departure from NASA’s Wallops Flight Facility in Virginia, on October 15, 2024, for a cargo transport mission to India. The C-130 is supporting the NASA-ISRO Synthetic Aperture Radar (NISAR) mission.
NASA/Madison Griffin

NASA’s globetrotting C-130 Hercules team is carrying out a cargo transport mission to Bengaluru, India, in support of the NASA-ISRO Synthetic Aperture Radar (NISAR) mission.

The C-130 departed from NASA’s Wallops Flight Facility in Virginia, Tuesday, Oct. 15, to embark on the multi-leg, multi-day journey. The flight path will take the aircraft coast to coast within the United States, across the Pacific Ocean with planned island stops, and finally to its destination in India. The goal: safely deliver NISAR’s radar antennae reflector, one of NASA’s contributions to the mission, for integration on the spacecraft. NISAR is a joint mission between NASA and ISRO (Indian Space Research Organisation).

The cargo transport mission will encompass approximately 24,500 nautical miles and nearly 80 hours of flight time for the C-130 and crew. The flight plan includes strategic stops and rest days to service the aircraft and reduce crew fatigue from long-haul segments of the flight and multiple time zone changes.

A member of the flight crew stands underneath the large wing of the C-130, looking up to inspect it prior to departure.
The flight crew inspects the aircraft prior to departure from NASA Wallops.
NASA/Madison Griffin
The C-130’s cargo compartment has plenty of space to hold the more than 2,800-pound payload containing the radar antennae reflector once retrieved from California.
NASA/Madison Griffin

The first stop for the C-130 was March Air Reserve Base located in Riverside County, California, to retrieve the radar antennae reflector from NASA’s Jet Propulsion Laboratory in Southern California. Additional stops during the mission include Hickman Air Force Base, Hawaii; Andersen Air Force Base, Guam; Clark Air Base, Philippines; and Hindustan Aeronautics Limited Airport in Bengaluru, India.

This is the C-130 and crew’s third cargo transport to India in support of the NISAR mission, with prior flights in July 2023 and March 2024.

For more information, visit nasa.gov/wallops.

By Olivia Littleton

NASA’s Wallops Flight Facility, Wallops Island, Va.

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Oct 17, 2024

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Olivia F. Littleton
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Olivia F. Littleton