Jump to content

From Psychology to Space: Alexandra Whitmire’s Journey and Impact in NASA’s Human Research Program


NASA

Recommended Posts

  • Publishers

From navigating the depths of the human mind to exploring the vastness of space, Dr. Alexandra (Sandra) Whitmire helps lead research on the effects of prolonged isolation and confinement as NASA prepares to voyage to the Moon and eventually Mars. 

Whitmire is the lead scientist for the Human Factors and Behavioral Performance element (HFBP) within NASA’s Human Research Program, or HRP. HFBP selects, supports, and helps design studies for Johnson Space Center’s HERA (Human Exploration Research Analog), which conducts missions simulating isolation and confinement to further understand psychological effects on humans.  

These studies evaluate how crews work as a team and overcome stressors, bringing to light the potential effects of prolonged isolation on behavioral health. They also help reveal strategies for keeping crew members cohesive and engaged on long-duration missions. With greater workloads, higher stress, and more isolation anticipated in future spaceflight missions, especially with communication delays, this research is crucial. 

A woman with long dark hair, wearing a dark top, stands in front of the U.S. flag and a NASA logo on a beige wall.
Alexandra Whitmire at a Human Resources swearing-in ceremony at NASA’s Johnson Space Center.
Credit: NASA/Robert Markowitz

Strategies that support astronauts’ mental health have been around since the early days of spaceflight, and a strong team at NASA is in place to support the behavioral health of crews on the International Space Station. This team facilitates services such as communication with family, regular provision of crew care packages, and guidance on the optimal use of onboard methods that seek to counter adverse effects of spaceflight. For instance, lighting systems that simulate daytime and nighttime can help maintain circadian rhythms in the dark of deep space. HFBP learns from the astronauts’ current psychological support teams, while also planning a research strategy that aims to maintain this level of care in future missions beyond low Earth orbit.  

Initially working through KBR as a research coordinator, Whitmire played a key role in establishing NASA’s behavioral health and performance research group in 2006. Over time, this small group advocated for dedicated research facilities, leading to the creation of HERA in 2013 and a Behavioral Health and Performance Laboratory in 2016. HFBP also initiates and oversees studies in Antarctica, and also created and managed studies previously conducted through the Scientific International Research In a Unique terrestrial Station, or SIRIUS, a series of international missions that were held inside a ground-based analog facility in Moscow, Russia. 

Whitmire’s role now involves managing projects aimed at mitigating risks for future spaceflight. She specializes in fatigue management, performance measurement, and strategies to counter behavioral changes that may result from spaceflight.  

“My journey to NASA was quite unexpected,” she said. “With a background in psychology and writing, I never imagined I’d find an opportunity working in space exploration.” 

Whitmire began her career supporting the state of Texas and MD Anderson Cancer Center on organizational development. She joined NASA’s HRP in 2006 as a research coordinator for the Human Health and Performance element. 

Whitmire completed her bachelor’s degree in English and Psychology from the University of Texas at Austin. She then earned her master’s in psychology, with a focus on experimental psychology, from the University of Texas in San Antonio, and years later, while continuing her full-time work with KBR, she completed her doctorate in psychology from Capella University. 

A woman in a black uniform pours dried vegetables from a large container into a measuring cup at a table. The table has multiple jars of dried vegetables, and the background features a habitat with storage boxes, a blue exercise bike, and various equipment.
Katie Koube, a HERA (Human Exploration Research Analog) crew member from Campaign 6 Mission 4, prepares food inside the ground-based habitat.

Through HERA missions, HRP conducts studies that seek to evaluate how crew health and performance can be affected by stressors anticipated in future exploration missions.  One example study, led by Dr. Grace Douglas, a food technology scientist at Johnson, explored a restricted food system in which meals were replaced with compact bars. Douglas found that limited food options were associated with reduced eating and caloric intake, as well as decrements in mood, highlighting the importance of an acceptable food system for mental well-being on long duration missions.  

Another study led by Dr. Leslie DeChurch, a professor of Communication and Psychology from Northwestern University in Evanston, Ill., revealed that teams performed worse on a complex, conceptual task at the end of a mission compared to earlier on, highlighting the need to maintain team cohesion and performance over time. Still more studies seek to evaluate the effects of communications delays of up to five minutes each way between crew and HERA’s mission control, which sits just outside the HERA facility.   

As NASA prepares to launch the first crewed Artemis missions, HRP’s behavioral health team is also incorporating studies to address Moon-specific challenges. The team is focused on the unique demands of lunar landings, such as high-tempo operations and seconds-long communication delays. The current goal is to increase the fidelity of HERA to future Artemis missions to ensure that more meaningful, operationally-relevant results emerge from future investigations.  

A group of four NASA astronauts in black uniforms are smiling and posing for a photo inside a space station module. One of the astronauts is holding a cake with a NASA logo on it. The background includes various equipment and a U.S. flag.
The HERA Campaign 7 Mission 1 crew members inside the analog environment at NASA’s Johnson Space Center in Houston.

Through these studies, scientists learn valuable lessons about resilience and coping mechanisms that can benefit future space missions. Their findings emphasize the importance of maintaining social connections, adequate work-rest schedules, and opportunities for exercise to support mental health. Being intentional and reflective with gratitude and positive emotions has also shown significant value, Whitmire notes, adding that during her time at NASA, she has learned more about the importance of relationships, communication, and resolving problems together as a team. 

“Overall, our goal is to ensure that astronauts are well-prepared for and supported through the psychological demands of space exploration. We seek to apply these insights to improve mental health support for everyone,” Whitmire said. “All of us can learn from these crew members in their periods of isolation to get insights on how to live happier, healthier lives here on Earth.” 

View the full article

Link to comment
Share on other sites

Join the conversation

You can post now and register later. If you have an account, sign in now to post with your account.
Note: Your post will require moderator approval before it will be visible.

Guest
Reply to this topic...

×   Pasted as rich text.   Paste as plain text instead

  Only 75 emoji are allowed.

×   Your link has been automatically embedded.   Display as a link instead

×   Your previous content has been restored.   Clear editor

×   You cannot paste images directly. Upload or insert images from URL.

  • Similar Topics

    • By NASA
      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
      Share








      Details
      Last Updated Oct 17, 2024 Contact NASA Science Editorial Team Location NASA Headquarters Related Terms
      Biological & Physical Sciences For Researchers Research Opportunities in Space and Earth Sciences (ROSES) Science & Research View the full article
    • By NASA
      NASA astronaut and Expedition 72 Flight Engineer Nick Hague in the space station cupola. (Credit: NASA) Students from Iowa will have the opportunity to hear NASA astronaut Nick Hague answer their prerecorded questions while he’s serving an expedition aboard the International Space Station on Monday, Oct. 21.
      Watch the 20-minute space-to-Earth call at 11:40 a.m. EDT on NASA+. Students from Iowa State University in Ames, First Robotics Clubs, World Food Prize Global Youth Institute, and Plant the Moon teams will focus on food production in space. Learn how to watch NASA content on various platforms, including social media.
      Media interested in covering the event must contact Angie Hunt by 5 p.m., Friday, Oct.18 at amhunt@iastate.edu or 515-294-8986.
      For more than 23 years, astronauts have continuously lived and worked aboard the space station, testing technologies, performing science, and developing skills needed to explore farther from Earth. Astronauts aboard the orbiting laboratory communicate with NASA’s Mission Control Center in Houston 24 hours a day through SCaN’s (Space Communications and Navigation) Near Space Network.
      Important research and technology investigations taking place aboard the space station benefit people on Earth and lays the groundwork for other agency missions. As part of NASA’s Artemis campaign, the agency will send astronauts to the Moon to prepare for future human exploration of Mars; inspiring Artemis Generation explorers and ensuring the United States continues to lead in space exploration and discovery.
      See videos and lesson plans highlighting space station research at:
      https://www.nasa.gov/stemonstation
      -end-
      Abbey Donaldson
      Headquarters, Washington
      202-358-1600
      Abbey.a.donaldson@nasa.gov
      Sandra Jones 
      Johnson Space Center, Houston
      281-483-5111
      sandra.p.jones@nasa.gov
      View the full article
    • By NASA
      Science Launching on SpaceX's 31st Cargo Resupply Mission to the Space Station
    • By European Space Agency
      Image: VAST focus of future space frequencies View the full article
    • By NASA
      4 min read
      Preparations for Next Moonwalk Simulations Underway (and Underwater)
      NASA pilot Nils Larson, and flight test engineer and pilot Wayne Ringelberg, head for a mission debrief after flying a NASA F/A-18 at Mach 1.38 to create sonic booms as part of the Sonic Booms in Atmospheric Turbulence flight series at NASA’s Armstrong Flight Research Center in California, to study sonic boom signatures with and without the element of atmospheric turbulence.NASA/Lauren Hughes NASA research pilots are experts on how to achieve the right flight-test conditions for experiments and the tools needed for successful missions. It is that expertise that enables pilots to help researchers learn how an aircraft can fly their technology innovations and save time and money, while increasing the innovation’s readiness for use.
      NASA pilots detailed how they help researchers find the right fit for experiments that might not advance without proving that they work in flight as they do in modeling, simulation, and ground tests at the Ideas to Flight Workshop on Sept. 18 at NASA’s Armstrong Flight Research Center in Edwards, California. “Start the conversation early and make sure you have the right people in the conversation,” said Tim Krall, a NASA Armstrong flight operations engineer. “What we are doing better is making sure pilots are included earlier in a flight project to capitalize on their experience and knowledge.”
      Flight research is often used to prove or refine computer models, try out new systems, or increase a technology’s readiness. Sometimes, pilots guide a research project involving experimental aircraft. For example, pilots play a pivotal role on the X-59 aircraft, which will fly faster than the speed of sound while generating a quiet thump, rather than a loud boom. In the future, NASA’s pilots with fly the X-59 over select U.S. communities to gather data about how people on the ground perceive sonic thumps. NASA will provide this information to regulators to potentially change regulations that currently prohibit commercial supersonic flight over land.
      Mark Russell, center, a research pilot at NASA’s Glenn Research Center in Hampton, Virginia, explains the differences in flight environments at different NASA centers. Jim Less, a NASA pilot at NASA’s Armstrong Flight Research Center in Edwards, California, left, Russell, and Nils Larson, NASA Armstrong chief X-59 aircraft pilot and senior advisor on flight research, provided perspective on flight research at the Ideas to Flight Workshop on Sept. 18 at NASA Armstrong.NASA/Genaro Vavuris “We have been involved with X-59 aircraft requirements and design process from before it was an X-plane,” said Nils Larson, NASA chief X-59 aircraft pilot and senior advisor on flight research. “I was part of pre-formulation and formulation teams. I was also on the research studies and brought in NASA pilot Jim Less in for a second opinion. Because we had flown missions in the F-15 and F-18, we knew the kinds of systems, like autopilots, that we need to get the repeatability and accuracy for the data.”
      NASA pilots’ experience can provide guidance to enable a wide range of flight experiments. A lot of times researchers have an idea of how to get the required flight data, but sometimes, Larson explains, while there are limits to what an aircraft can do – like flying the DC-8 upside down, there are maneuvers that given the right mitigations, training, and approval could simulate those conditions.
      Less says he’s developed an approach to help focus researchers: “What do you guys really need? A lot of what we do is mundane, but anytime you go out and fly, there is some risk. We don’t want to take a risk if we are going after data that nobody needs, or it is not going to serve a purpose, or the quality won’t work.”
      Justin Hall, left, attaches the Preliminary Research Aerodynamic Design to Land on Mars, or Prandtl-M, glider onto the Carbon-Z Cub, which Justin Link steadies. Hall and Link are part of a team from NASA’s Armstrong Flight Research Center in Edwards, California, that uses an experimental magnetic release mechanism to air launch the glider.NASA/Lauren Hughes Sometimes, a remotely piloted aircraft can provide an advantage to achieve NASA’s research priorities, said Justin Hall, NASA Armstrong’s subscale aircraft laboratory chief pilot. “We can do things quicker, at a lower cost, and the subscale lab offers unique opportunities. Sometimes an engineer comes in with an idea and we can help design and integrate experiments, or we can even build an aircraft and pilot it.” 
      Most research flights are straight and level like driving a car on the highway. But there are exceptions. “The more interesting flights require a maneuver to get the data the researcher is looking for,” Less said. “We mounted a pod to an F/A-18 with the landing radar that was going to Mars and they wanted to simulate Martian reentry using the airplane. We went up high and dove straight at the ground.”
      Another F/A-18 experiment tested the flight control software for the Space Launch System rocket for the Artemis missions. “A rocket takes off vertically and it has to pitch over 90 degrees,” Less explained. “We can’t quite do that in an F-18, but we could start at about a 45-degree angle and then push 45 degrees nose low to simulate the whole turn. That’s one of the fun parts of the job, trying to figure out how to get the data you want with the tools we have.”
      NASA pilot Jim Less is assisted by life support as he is fitted with a pilot breathing monitoring system. The sensing system is attached to a pilot’s existing gear to capture real-time physiological, breathing gas, and cockpit environmental data.NASA/Carla Thomas Share
      Details
      Last Updated Oct 16, 2024 EditorDede DiniusContactJay Levinejay.levine-1@nasa.govLocationArmstrong Flight Research Center Related Terms
      Armstrong Flight Research Center Aeronautics Aeronautics Research Aeronautics Research Mission Directorate Quesst (X-59) Technology Research Explore More
      3 min read Sacrifice and Success: NASA Engineer Honors Family Roots
      Article 2 hours ago 4 min read Sacrificio y Éxito: Ingeniero de la NASA honra sus orígenes familiares
      Article 2 hours ago 3 min read NASA Spotlight: Felipe Valdez, an Inspiring Engineer
      Article 3 days ago Keep Exploring Discover More Topics From NASA
      Armstrong Flight Research Center
      Armstrong Capabilities & Facilities
      NASA Aircraft
      Armstrong Technologies
      View the full article
  • Check out these Videos

×
×
  • Create New...