GVIS Virtual Systems Simulations

GVIS Virtual Systems Simulations

4 Min Read

GVIS Virtual Systems Simulations

High-Efficiency Megawatt Motor (HEMM) Visualization

Credits:
NASA GVIS

The Graphics and Visualization Lab (GVIS) at NASA Glenn Research Center creates a variety of immersive visualizations and simulations in support of NASA’s missions, projects, and future innovations. These visual tools help scientists, engineers, and researchers develop new solutions that bring their projects to life.

Virtual System Simulations

The GVIS Lab prides itself on creating engaging and informational virtual system simulations for NASA missions. These simulations transform complex engineering concepts into digestible visualizations and immersive experiences, bridging the gap between concept and reality. These simulations bring greater understanding of systems typically hidden from view, such as the inside of an engine or how elements behave inside of a fuel cell.

The GVIS Lab is able to create system simulations in a variety of formats depending on the desires of the customer and the purpose of the simulation. These formats can be take the form of an interactive demo or video and can be in augmented reality, virtual reality, or a 3D model.

System simulations empower us to see and experience capabilities before they’re built, reducing risk, accelerating decision making, and ensuring mission requirements are met with confidence.

Marc frances

Marc frances

Extended Reality Developer 

“Virtual system simulations empower customers to see and experience capabilities before they’re built, reducing risk, accelerating decision making, and ensuring mission requirements are met with confidence,” says Extended Reality developer Marc Frances. “By translating complex data and concepts into immersive, intuitive experiences using augmented reality, they help customers validate performance, improve training outcomes, and maximize return on investment.”

Exploded view of the High-Efficiency Megawatt Motor (HEMM)
NASA GVIS

The above visual system simulation is an exploded view of the High-Efficiency Megawatt Motor (HEMM). The HEMM is a 1.4 megawatt electric machine being developed at NASA’s Glenn Research Center in Cleveland to improve efficiency in future aircraft with electrified propulsion systems. This virtual reality simulation shows an exploded view of HEMM, allowing for an intricate view of the beautifully designed motor. The simulation showcases how the GVIS Lab takes complex systems and creates comprehendible visual ones. Simulations like these are especially vital for projects in development, such as HEMM. These simulations allow for customers to see their completed projects in ways they could never imagine, years before project completion.

Interactive Experiences

Virtual reality game of super-alloy GRX-810
NASA GVIS

The above visualization is a virtual reality interactive experience of GRX-810, a NASA created super-alloy. This super-alloy dramatically improves the strength and durability of the components and parts used in aviation and space exploration, resulting in better and longer-lasting performance. The magic of GRX-810 lies within its unique chemical composition, a feature which is invisible to the human eye. Comprehending elemental processes can be unintuitive for people outside of chemical and material engineering. But, with the power of virtual reality users are able to come to a deeper understanding of how GRX-810 works along with its benefits. The game-like structure of the visualization leads to an interactive, engaging, and exciting learning experience.

Public Outreach

Simulation of a fuel cell at Great Lakes Science Center
NASA GVIS

The GVIS Lab sometimes creates system simulations specifically for public outreach and museum displays. The above simulation is of a non-flow-through fuel cell. The simulation begins with a model of the fuel cell, then zooms into a molecular view of the fuel cell. A fuel cell converts hydrogen into oxygen to create electricity. In the molecular model, users can interact with power, display speed, and change the amount of impurities in the system to see how these variables change the system. This simulation was created for the Great Lakes Science Center, the premier science technology museum in Cleveland, Ohio which hosts over 300,000 visitors annually. Because of this simulation created by the GVIS Lab, thousands of curious minds now have a better understanding of fuel cells and how they create electricity.

Contact Us

Need to reach us? In need of a virtual systems simulation? You can send an email directly to the GVIS Team (GRC-DL-GVIS@mail.nasa.gov).

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Amanda Fanale

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GVIS Conceptual Visual Designs

GVIS Conceptual Visual Designs

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GVIS Conceptual Visual Designs

Cutaway design of the HyTEC engine project. The engine is steel grey, with inside components highlighted red, yellow, teal, and blue.

Cutaway diagram of the HyTEC Engine

Credits:
NASA GVIS

The Graphics and Visualization Lab (GVIS) at NASA Glenn Research Center creates a variety of immersive visualizations and simulations in support of NASA’s missions, projects, and future innovations. These visual tools help scientists, engineers, and researchers develop new solutions that bring their projects to life.

Conceptual Visual Designs

GVIS creates conceptual visual designs for proposed NASA missions and missions currently in development or being researched. These designs are used to communicate desired project outcomes, demonstrate upcoming engineering developments, showcase projects under construction, and serve as accessible education tools for the general public. GVIS has created conceptual designs for a wide variety of NASA projects: from spacecraft, aircraft, power and propulsion, to missions support systems.

Cutaway design of the HyTEC engine project. The engine is steel grey, with inside components highlighted red, yellow, teal, and blue.
Cutaway visualization of the HyTEC Aero engine
Rendered by GVIS

The above image is a cutaway of the inside of the Hybrid Thermally Efficient Core (HyTEC) design. The HyTEC project is developing small core turbofan engine technologies to enable fuel burn reduction and increased electrical power extraction from the engine. Visualizations such as HyTEC allow for a “look inside” engines, aircraft, and facilities that would typically be hidden from view. These kinds visualization brings NASA innovations to life in easy to understand formats and visuals.

Proposed Missions

The GVIS Lab creates visualization support for a variety of missions, from aeronautics to space exploration. Visualizations for missions in the proposal phase or in early development are critical for showcasing the desired outcome of the mission. These visualizations are also critical for technical engagement, as mission development can last months or years. It is useful to have a visual aid to explain the future endeavors of the Agency.

Visualization of the SUbsonic Single Aft eNgine (SUSAN) Electrofan conceptual aircraft
NASA GVIS

The GVIS Lab helps NASA visualize technology which will shape future. The SUbsonic Single Aft eNgine (SUSAN) Electrofan is a concept for sustainable airtravel. It is an advanced hybrid electric concept aircraft, seeking to reduce emission levels by 50% within the next few decades. The GVIS Lab is proud to partner with the SUSAN team at NASA Glenn in creating conceptual visualizations to convey state-of-the-art designs.

Visualization of Lunar Gateway in Augmented Reality
Augmented reality demonstration of the Lunar Gateway Power and Propulsion Element (PPE).
NASA GVIS

The GVIS Lab is known for creating virtual and augmented reality designs. The upcoming Lunar Gateway project features the Power & Propulsion Element (PPE), seen here as a dark gray box with thrusters and solar panels attached. To see this visualization, users wear an augmented reality headset and can see Lunar Gateway in their environment. With augmented reality, users are able to experience the true life size and detail of Gateway like never before.

I’ve seen a lot of PPE assembly progress photos in the past year but have never seen it in person to fully appreciate the scale. This augmented reality view truly helped bridge that experience gap.

Phuong Marangoni

Phuong Marangoni

PPE Deputy Project Planning and Control Lead 

Demonstrations such as these are not only designed to educate the public on NASA’s upcoming missions, but are also impactful to the mission developers themselves. “This model resonated so deeply for me after seeing a full scale PPE for the first time (ever),” said PPE Deputy Project Planning and Control Lead Phuong Marangoni. “I’ve seen a lot of PPE assembly progress photos in the past year but have never seen it in person to fully appreciate the scale. This augmented reality view truly helped bridge that experience gap, and I didn’t have to leave Cleveland for it!”

Out of this World Visualizations

Visualization of a submarine half submerged in water, surrounded by an orange atmosphere.
Visualization for a proposed submarine to explore Saturn’s moon, Titan.
NASA GVIS

Conceptual visualizations are fundamental for conveying future space initiatives. Sometimes, space missions are visiting places in the Solar System which have never been explored before. The above visualization is of a proposed submarine exploring the seas of Titan, a moon of Saturn. Titan’s atmosphere, seas, and environment are all extremely different from Earth, making a visualization vital for understanding the purpose and design of the mission. These visuals make otherworldly scenarios a reality and are crucial for mission development.

Contact Us

Need to reach us? In need of a conceptual visualization? You can send an email directly to the GVIS Team (GRC-DL-GVIS@mail.nasa.gov).

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Amanda Fanale

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GVIS Scientific Visualizations

GVIS Scientific Visualizations

3 Min Read

GVIS Scientific Visualizations

Graphic visualization showing combustion swirlers in the form of blue ribbons erupting from white nozzles attached to a larger, white structure. There are also thick red tendrils coming out from the nozzles and around the white structure.

Ray traced image of combustor swirlers

Credits:
NASA GVIS

The Graphics and Visualization Lab (GVIS) at NASA Glenn Research Center creates a variety of immersive visualizations and simulations in support of NASA’s missions, projects, and future innovations. These visual tools help scientists, engineers, and researchers develop new solutions that bring their projects to life.

Scientific Visualizations

GVIS creates scientific visualizations to explain complex scientific systems which are typically impossible to see with the naked eye. These visualizations can be for large systems such as engines and storage tanks and add useful supplementary information as to how the system functions. Scientific visualizations can display information on large and microscopic scales, providing powerful insight to the inner workings of mechanical systems.

Visualization of the Zero Boil-Off Tank Experiment
NASA GVIS

Above is a visualization of the Zero Boil-Off Tank (ZBOT), a long term propellant storage tank developed by NASA. Spacecraft fuels are volitaile cryogenic liquid propellants which must be maintained at extremely low temperatures and also must be guarded from environmental heat leaks into the spacecraft’s propellant tank. The featured visualization is an example of many experiments done on the ZBOT to investigate the best storage method for cryogenic liquid propellants. This visualizations shows the viewer the inner workings of the propellants inside the tank, bringing the experiment to life.

Our goal when developing visualizations is to engage the imagination, to provide insight and understanding. We aim to make the intangible tangible and turn the hypothetical into reality.

paul Catalano

paul Catalano

Senior Extened Reality Developer

Graphic visualization showing combustion swirlers in the form of blue ribbons erupting from white nozzles attached to a larger, white structure. There are also thick red tendrils coming out from the nozzles and around the white structure.
Ray traced image of combustor swirlers
NASA GVIS
A vibrant, neon, multi-colored engine. Engine gears are a bright red or yellow. Between the gears are dozens of neon green or neon blue lines, each imbedded with spherical nodes.
Visualization of turbo machinery within an engine.
NASA GVIS

Turbomachinery visualizations, such as those seen above, offer a visual representation of energy transfer. These representations of engines are vital tools in reducing the time and expense required to test and manufacture aircraft.

Scientific visualizations are indispensable educational tools. Visual forms of scientific concepts are easy to share, eliminate scientific jargon, used as supplements in lessons, and can be modified for different audiences. The barrier between scientific concepts and understanding are broke through the artistry of scientific visualizations.

Scientific Immersion

Magnetic flux demonstration of the HEMM motor.
NASA GVIS

The above visualization is of the High-Efficiency Megawatt Motor (HEMM). HEMM is a 1.4 megawatt electric machine being developed at NASA’s Glenn Research Center in Cleveland to improve efficiency in future aircraft with electrified propulsion systems.

Many scientific visualizations, such as the magnetic flux demonstration of the HEMM motor, are created for the GRUVE Lab. GRUVE, or the Glenn Reconfigurable User-Interface and Virtual Reality Exploration Lab, hosts the CAVE, a fully immersive, virtual, 3D environment. When in the CAVE users wear tracking active-shutter glasses, which ensures that models and simulations remain proportional and in-line with the user. This personalized experience allows for greater understanding and implementation of scientific systems.

You can learn more about GRUVE Lab by clicking here.

Contact Us

Need to reach us? In need of a scientific visualization? You can send an email directly to the GVIS Team (GRC-DL-GVIS@mail.nasa.gov).

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Amanda Fanale

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GVIS Test Facilities Visualizations

GVIS Test Facilities Visualizations

3 Min Read

GVIS Test Facilities Visualizations

A visualization of the W7 test facility, a room with cream colored cinder block walls. There is a long desk with lab stools on the right, a desk with a computer monitor on the left. Behind the monitor on the ground is a large, blue, cylindrical tank with a diagonal blue pipe stretching from the main tank up and out of frame.

Visualization of the interior of the W-7 Facility.

Credits:
NASA GVIS

The Graphics and Visualization Lab (GVIS) at NASA Glenn Research Center creates a variety of immersive visualizations and simulations in support for NASA’s missions, projects, and future innovations. These visual tools help scientists, engineers, and researchers develop solutions to bring their projects to life.

Test Facility Models

GVIS creates visualizations of various NASA test facilities. These visualizations include interactive tours, digital replications of facilities, 3D models, and demonstrations of facility tests. Test facility visualizations are useful tools for customers, developers, and curious minds. They give researchers the ability to visit and explore test facilities from afar, reducing travel costs and allow developers to experience a facility in its entirety before construction has been completed.

“We have had senior management see our visualizations after seeing the actual test facility and say that the visualization helped them understand the facility better than seeing the facility itself.” says GVIS Lab manager Herb Schilling.

Tours of test facilities are typically given outside of actual testing operations. Those unaffiliated with the testing facility aren’t able to experience the facility in full, which makes creating test facility visualizations so vital. With these visualizations, visitors are able to see every corner of the facility as well as experience a test demonstration. Visualizations can also create experiences that would not typically be possible to see in person.

Walkthrough of the High Speed Multistage Compressor Facility (W-7) at NASA Glenn Research Center
NASA GVIS

The visualization helped them understand the facility better than seeing the facility itself.

Herb schilling

Herb schilling

GVIS Lab Manager

GVIS creates to-scale visualizations of various NASA facilities. Shown above and below are fly-throughs of two facilities: The High Speed Multistage Compressor Facility (W-7) and the NASA Electric Aircraft Testbed (NEAT) Facility. These visualizations can be interacted with in a multitude of ways, including in virtual reality. These visualizations are immersive, detailed, and offer “to-scale” experiences where users can feel as if they were actually visiting the facility. With a simple headset, users are transported to NASA facilities across the country. without ever needing to leave their center.

Walkthrough of the NASA Electric Aircraft Testbed (NEAT) Facility at Armstrong Test Facility in Sandusky, Ohio
NASA GVIS

GVIS also creates 3D printed models of facilities, such as the altitude chamber of NEAT facility. 3D printed facility models allow for innovation and collaboration, and can offer new perspectives. These prints are life-like, to-scale, contain movable parts, and are easily transportable.

Test Facility Demonstrations

In addition to creating virtual models of test facilities, the GVIS Lab creates demonstrations of tests and facility functions. Tests are seldom performed for visitors and guests, and offering demonstrations of facility functions privides an unique perspective.

DGEN-XR: An audio test facility demonstration.
NASA GVIS

The GVIS Lab is developing an extended reality (XR) demonstration of a small engine test in the Aero-Acoustic Propulsion Laboratory (AAPL), a world-class facility for conducting aero-propulsion noise-reduction research. The demo is of the DGEN AeroPropulsion Research Turbofan, or DART, an experimental aeroacoustic and aero-performance test bed. This video showcases an interactive demonstration of the testbed, allowing users to manipulate microphones and the engine in order to achieve various audio outputs. Test demonstrations like these allow users to experience a facility without having to step foot into it.

Visualization of the Adaptive Icing Tunnel
NASA GVIS

The above visualization is of the Adaptive Icing Tunnel (AIT), a vertical icing wind tunnel currently in development. This visualization demonstrates the future capabilities of the facility, which can produce air speeds up to 110 meters per second and can reach temperature as low as -20º C. As the facility is still in development, a visualization is useful for its engineers, future customers, and public for a greater understanding of the potential usefulness of the AIT.

Contact Us

Need to reach us? In need of a visualization? You can send an email directly to the GVIS Team (GRC-DL-GVIS@mail.nasa.gov).

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Amanda Fanale

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Astronauts’ Perspectives on NESC Contributions to Mission Safety and Success 

Astronauts’ Perspectives on NESC Contributions to Mission Safety and Success 

Mark Vande Hei outside of ISS (October 10, 2017). 
Mark Vande Hei outside of ISS (October 10, 2017). 

This article is from the 2025 Technical Update.

The exact date when the crew of Space Shuttle Columbia was lost is readily recalled by Patrick Forrester, as it likely would be for any NASA employee in service that Saturday morning when the Shuttle broke up during reentry. Forrester had flown to ISS for the first time in 2001 aboard Discovery in support of the STS-105 mission. He was scheduled to fly again shortly after Columbia’s February 1, 2003 return. That date is now a somber anniversary etched in his memory.  

“I had three classmates on Columbia,” Forrester said. “As an astronaut class, you are even closer because you are selected together and go through that initial training together.” That was the reason he said yes when asked to join the NESC in 2009 as the NESC Chief Astronaut—the liaison between the NESC and the Astronaut Office. “The NESC was started after the Columbia accident, and it was really just an honor to be part of that organization where the focus was to make sure that didn’t happen again.” 

The NESC has had an astronaut liaison for most of its 22-year history. “It stands to reason that the individuals the NESC works so hard to protect should have a seat at the table,” said NESC Director Tim Wilson.

“The Chief Astronaut gives them direct access to the NESC for insight into technical activities that might affect them and a forum for voicing concerns that otherwise might not have surfaced. The interface gives us access to them as well; astronauts have lent their expertise and unique perspectives to many NESC assessments over the years. As the agency’s front-line risk takers, they are by definition our primary stakeholders, and much of what we do revolves around ensuring the risks they take are well-understood and mitigated.”  The current and some of the former Chief Astronauts shared their perspectives on how they feel about the NESC and whether this organization—designed to increase the overall safety of their jobs—was  accomplishing that mission.    

Patrick Forrester 
NESC Chief Astronaut 2009-2016 

It would be four years after Columbia that Forrester would fly again. That was June 2007 aboard Space Shuttle Atlantis as part of STS-117, where he helped deliver the second starboard truss and third set of solar arrays to ISS.  During his years with the NESC, Forrester assisted in NESC assessments or arranged for others from the Astronaut Office to participate. He recalled being a part of an NESC review of the astronaut pre-breathe protocol used before extravehicular activities, and he also worked with fellow astronaut Dr. Nancy Currie, who at that time was a principal engineer for the NESC, to assess the procedures and plans to ensure alternative means of return for STS-135 in the event Atlantis could not provide it. Since the other Space Shuttle orbiters had retired, rescue capability via Space Shuttle was not an option for this mission, he said. “We came up with the plan of how they could stay on the space station and use a Russian Soyuz to get them back.” 

Patrick Forrester, STS-128 mission specialist, watches his spacewalking crewmates through an overhead window on the aft flight deck of Space Shuttle Discovery while docked with the ISS (September 3, 2009)
Patrick Forrester, STS-128 mission specialist, watches his spacewalking crewmates through an overhead window on the aft flight deck of Space Shuttle Discovery while docked with the ISS (September 3, 2009)

Forrester always felt, however, that his primary mission was to educate others about the NESC, which was a relatively new organization at that time. “I tried to help them understand that the NESC was engineering. This is what we do. This is what we need. It was one of my goals when I served: to help people understand what the NESC did.”  

After leaving his NESC post to become chief of the Astronaut Office, he continued to call on the NESC during the lead-up to the launch of SpaceX Crew Dragon Demonstration Mission-2, the first SpaceX flight with crew aboard. “I was feeling the weight and the responsibility as the chief of putting Bob Behnken and Doug Hurley on that rocket for the first time. I took a lot of comfort in knowing how involved the NESC was in those decisions.” 

Barry “Butch” Wilmore 
NESC Chief Astronaut 2018-2020 

Following Forrester’s tenure, Butch Wilmore served as the NESC Chief Astronaut for two years.  A former Navy test pilot, Wilmore joined NASA in 2000, flying three missions to the ISS, including his most recent as commander of the Boeing Starliner’s first crewed flight. He took on the NESC liaison role already well acquainted with the NESC’s mission.  

Boeing Crew Flight Test Commander Butch Wilmore performs spacesuit maintenance inside ISS's Quest airlock (July 11, 2024).
Boeing Crew Flight Test Commander Butch Wilmore performs spacesuit maintenance inside ISS’s Quest airlock (July 11, 2024).

“I’m very familiar with the certification, flight readiness, the flight readiness reviews, and how the NESC is used to validate some of the assumptions and the engineering that takes place. And I wasn’t just aware of the organization, but knew exactly what it did and what benefit it was,” Wilmore said.  “When I worked with the NESC, it gave me knowledge to understand more of what and how they went about doing things—that deep engineering analysis. And as an operator, I don’t dig into the engineering analysis. I just see big picture. So, when I would see something that wasn’t right, I knew the NESC could work on it and figure out why it didn’t look right to me.” 

Wilmore ended his NESC tenure when he was chosen as the Starliner commander, but continued to reach back whenever he needed answers to the multitude of questions that arise in flying a spacecraft for the first time. “Certainly when I became the commander of Starliner, there were things that I knew I wanted the NESC to have purview over.” In its support of the Commercial Crew Program, the NESC not only assisted in the lead-up to the flight, but helped troubleshoot propulsion issues it experienced on its way to ISS and with the plans to bring the crew home. “The NESC obviously has been a big help in all organizations,” Wilmore added. “I think that the role it plays is vital, and I wish it was larger.” 

Scott Tingle 
NESC Chief Astronaut 2020-2022 

Scott Tingle was selected in June 2009 to the astronaut corps, serving as a flight engineer and U.S. Operational Segment Lead for Expedition 54/55, where he spent 168 days aboard the ISS. His training for spaceflight involved many discussions about the Columbia accident.  “We debriefed it 100 times,” he said. “When we’re talking safety issues—Apollo, Challenger, Columbia—they always come up, and there are always really good lessons learned.” 

With his naval aviation and engineering background, Tingle said it didn’t take him long to get a feel for how the NESC worked. “They really get their fingers on the pulse of operations, which is what I think is one of the high value things they do.” When it came to filling in engineering gaps, Tingle liked having the NESC to lean on, “not only because of their engineering perspective, but because it’s independent. They’re not involved in the politics and everything that goes with it. And they have the end user and the operators in their heart and soul,” said Tingle. “This is the product that you get out of the NESC. It’s just a huge value because of that.”  

“Having folks able to dive into the technicals, it really helps us. And it doesn’t just help us, it helps the crew, it helps the program, it helps the contractors, it helps our technical authorities. It helps everybody just to have people with that capability.” 

Scott Tingle wears a U.S. spacesuit inside the Quest Airlock preparing for his first spacewalk (January 18, 2018).
Scott Tingle wears a U.S. spacesuit inside the Quest Airlock preparing for his first spacewalk (January 18, 2018).  

He remembers when the NESC ramped up material testing to address an issue the astronaut corps was working. “They were able to get results very quickly. They really do fill the gap when it needs to be filled. They help us catch the things that we can’t catch.” 

Being an astronaut was always on Tingle’s career agenda, and that obsession was deeply rooted at an early age. “I remember watching on TV Neil Armstrong stepping out onto the moon. I was four years old at the time, and me and my mom were watching in our living room.”  

In a way, that is part of what he thinks makes the NESC so valuable. “They have not forgotten their roots. They haven’t forgotten the users who actually use this equipment and the value of the overall human spaceflight community.” 

Sometimes that value is only seen in hindsight. “When we finally get up and running with all of these vehicles, I think you’re going to be able to go back and list all of these actions the NESC supported and how they helped provide critical information. You’re going to end up seeing that, ‘Wow, this was really transformational. This really helped us with our overall direction. It helped us be successful,’ ” Tingle said. “I’m honored to have been a part of it.” 

Mark Vande Hei 
NESC Chief Astronaut 2023-present 

“I think the fact that NASA’s been willing to invest the talent and the resources to have an organization that can do a really deep dive with a second, third, fifth set of eyes, with the best technical experts and the perspective of knowing what’s going on across NASA, is a hugely beneficial thing,” said Mark Vande Hei, the current NESC Chief Astronaut.  

Expedition 65 Flight Engineer Mark Vande Hei works inside the U.S. Destiny laboratory module's Microgravity Science Glovebox for the Ring Sheared Drop fluid physics study (August 16, 2021)
Expedition 65 Flight Engineer Mark Vande Hei works inside the U.S. Destiny laboratory module’s Microgravity Science Glovebox for the Ring Sheared Drop fluid physics study (August 16, 2021)

Relatively new to the organization, he’s been getting up to speed. “I’ve already seen programs like the ISS repeatedly pull in NESC expertise to help out.” In his own experience, he sought NESC advice to help understand the risk posture associated with batteries. “I knew it was something we could fix, but it was going to cost money. And so the emphasis was on ‘how risky is this? Can we accept this risk?’ ” Help from the NASA Technical Fellow for Electrical Power helped him make decisions on what avenues to pursue.  

He also asked the NESC to convey the risks associated with leaks in the Russian PrK module. “I wanted to have both sides hear directly what the other’s perspective was. I was  impressed with the NESC’s professionalism,” said Vande Hei, in discussing a topic that has been controversial at times. “In addition to their technical skills, there’s an impressive interpersonal skill set that comes along with the folks on the NESC, too.” 

Having already spent more than 500 days in space, Vande Hei is focused on the next generation. “There are a lot of other people who haven’t flown yet, and we need to get them to space because they’ll still be around when we’re doing much more challenging missions to the Moon and Mars. And they need to get the experience to be ready for those things much more than I do.” Even today, Vande Hei said the emotions he goes through when he watches astronauts launch, “I’m a mess. It’s rough, but it’s great. I call it ‘horribly amazing.’” 

____________________ 

Today, 22 years in and with nearly 1,400 assessments behind it, the NESC has won the respect of the programs and projects it supports, and some of it was earned with the help of its astronaut liaisons. “They helped us prove we could add value to NASA missions and bring new perspectives to their technical problems,” said Wilson. “We keep a photograph of the Columbia crew in the NESC office, but our astronaut liaisons are living, breathing reminders of why we do this work.”      

Pat Forrester, now retired from NASA, considers his time with the NESC well spent. “You always want to be able, if there is an accident, to look at the remaining family and let them know you did everything that could be done. The amount of involvement the NESC has is limited only by funds and people, so I know how hard everyone works on those assessments,” he said. “I appreciated it so much when I was in that role where I felt like I was carrying a lot of the burden.”  

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Meagan Chappell