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NASA Advanced Air Mobility Partnerships


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Preparations for Next Moonwalk Simulations Underway (and Underwater)

NASA Advanced Air Mobility Partnerships map showing the US, Canada, France & Germany maps with locations to partners.

NASA is partnered with other government agencies, industry, and academia to conduct Advanced Air Mobility (AAM) research to benefit a future transportation system with routine flight of air taxis and drones. See the current partnerships below and in the map above.

Aerostar
Sioux Falls, South Dakota
NASA and Aerostar are conducting collaborative evaluation of a NASA prototype simulated Upper Class E Traffic Management (ETM) system.

AeroVironment
Simi Valley, California
NASA and AeroVironment are conducting research, development, testing, and evaluation of a NASA prototype simulated Upper Class E Traffic Management (ETM) system.

AFWERX – U.S. Air Force
Wright-Patterson Air Force Base, Ohio
NASA and AFWERX have ongoing information exchange efforts across multiple AAM areas. NASA is using Joby’s air taxi aircraft for testing at Edwards Air Force Base in partnership with the U.S. Air Force’s AFWERX program.

Air Force Research Laboratory Aerospace Systems Directorate (AFRL)
Wright-Patterson Air Force Base, Ohio
NASA and AFRL are sharing data about autonomous systems in AAM vehicles, airspace management systems, and infrastructure. Research includes configuration of formal methods, control systems validation, and flight critical software verification and validation.

AIRT
Miami, Florida
NASA and AIRT are developing a safety management system to enable highly-automated AAM-focused aviation for emergency response.

A&P Technology
Cincinnati, Ohio
NASA and A&P Technology are developing new braided composite materials to improve the crash safety of composite aircraft. A&P Technology and NASA will work together from the design phase, to fabrication, to dynamic crush test experiments on the materials.

Archer Aviation
San Jose, California
NASA and Archer will focus on testing the safety, energy and power performance capabilities of the Archer air taxi’s battery cells at NASA’s Johnson Space Center. The goal is to jointly improve overall safety of AAM and human spacecraft battery applications.

AURA Network Systems
McLean, Virginia
NASA and AURA Network Systems will perform AAM flight test evaluations of Communication, Navigation, and Surveillance (CNS) technologies to advance the maturity of these technologies for AAM aircraft.

The City of Orlando
Orlando, Florida
NASA is working with city and state governments to brainstorm the ways that air taxis and drones, and the infrastructure for this new transportation system, could be integrated into city planning. NASA is exchanging information with these governments to identify the best practices for how a local government could design this system. Each city or state government involved will create a joint document with NASA using computer modeling software to describe how this could work in their locality.

Boeing
Huntsville, Alabama
NASA and Boeing are researching the integration, demonstration, and evaluation of autonomous systems and tools to support AI standardization.

Defense Advanced Research Projects Agency (DARPA)
Arlington, Virginia
NASA and Lockheed Martin – Sikorsky are working together with DARPA under a DARPA agreement to research air taxi automation technology using Sikorsky helicopters. In a separate effort, NASA is working with DARPA on the Automated Rapid Certification Of Software (ARCOS) program, which will aid in developing the criteria for automation software certification.

Embry-Riddle Aeronautical University
Daytona Beach, Florida
NASA and Embry-Riddle are examining existing mishap data collected from the NASA Human Contribution to Safety (HC2S) test bed, and data collected independently, to identify realistic, actionable methods to promote better response to disturbances in flight.

DLR – German Aerospace Center
Braunschweig, Germany
Cologne, Germany

NASA and DLR researchers are designing algorithms and conducting fast-time simulations to help address the challenges of a future air traffic management system with more aircraft. In a separate effort, NASA and DLR are researching the air flow generated by rotary wing aircraft. The team is using visual tools like schlieren and shadowgraph techniques to see the directions of airflow invisible to the naked eye.

General Electric Company
Niskayuna, New York
NASA and General Electric Company are researching flight safety in autonomous systems. Efforts focus on assurance of flight-critical systems (including airborne and ground software systems), human autonomy teaming, and efficient airspace operations.

George Washington University
Washington, D.C.
NASA and several universities are demonstrating a NASA-created safety management system called “In-Time Learning-Based Safety Management for Scalable Heterogeneous AAM Operations.” This is a combined effort with George Washington University, Vanderbilt University, MIT/Lincoln Labs, and UT-Austin.

Iowa State
Ames, Iowa
NASA, Iowa State and Notre Dame University are developing and evaluating automated techniques for predicting, detecting, diagnosing, and mitigating diverse configuration problems and runtime failures in small Uncrewed Aerial Systems (sUAS), also called drones.

Joby Aviation
Santa Cruz, California
NASA and Joby are testing the human response to autonomy to find management solutions for autonomous air taxis using only a small number of human ground operators. This research will lead to a better understanding of technology solutions needed to ensure safe, routine, multi-aircraft AAM flights. In another effort, in partnership with the U.S. Air Force’s AFWERX program, NASA is using Joby’s aircraft for testing at Edwards Air Force Base.

Lockheed Martin – Sikorsky
Bridgeport, Connecticut
NASA and Lockheed Martin – Sikorsky are conducting dynamic crush and ballistic impact testing of new woven composite materials. The test material will be provided by Lockheed Martin and NASA will conduct the testing. The goal is to improve NASA’s impact modeling capabilities and to improve the crash safety of future composite aircraft.

Lone Star UAS Center of Excellence and Innovation at Texas A&M University
Corpus Christi, Texas
NASA and the Lone Star UAS Center of Excellence and Innovation are developing and testing new AAM technologies through experiments, measurements, and flight tests.

Longbow
Hampton, Virginia
NASA and Longbow will conduct collaborative flight tests and use NASA-developed prognostic services to increase situational awareness and decrease exposure to hazards.

Massachusetts Department of Transportation
Boston, Massachusetts
NASA is working with city and state governments to brainstorm the ways that air taxis and drones, and the infrastructure for this new transportation system, could be integrated into city planning. NASA is exchanging information with these governments to identify the best practices for how a local government could design this system. Each city or state government involved will create a joint document with NASA using computer modeling software to describe how this could work in their locality.

Massachusetts Institute of Technology (MIT)
Cambridge, Massachusetts
NASA and MIT are capturing the human contribution to safety and are developing methods to increase safety in autonomous systems like training a machine to “see” the obstacles that a human would see.

Minnesota Department of Transportation
St. Paul, Minnesota
NASA is working with city and state governments to brainstorm the ways that air taxis and drones, and the infrastructure for this new transportation system, could be integrated into city planning. NASA is exchanging information with these governments to identify the best practices for how a local government could design this system. Each city or state government involved will create a joint document with NASA using computer modeling software to describe how this could work in their locality.

MIT/Lincoln Labs
Lexington, Massachusetts
NASA and several universities are demonstrating a NASA-created safety management system called “In-Time Learning-Based Safety Management for Scalable Heterogeneous AAM Operations.” This is a combined effort with George Washington University, Vanderbilt University, MIT/Lincoln Labs, and UT-Austin.

Mitre
Bedford, Massachusetts
NASA and Mitre are researching the accuracy of positioning, navigation, and timing (PNT) of different aviation navigation systems in modeling and simulation. In a separate agreement, NASA and Mitre are developing a service to predict GPS connectivity in urban areas to help adapt pre-flight and in flight routes for AAM aircraft.

Moog
East Aurora, New York
NASA is partnered with Moog to conduct acoustic testing of their SureFly aircraft. Moog is providing the test vehicle and executing the flight test, while NASA is collecting acoustic data during the tests using an array of ground microphones. These acoustic measurements will provide valuable data used to improve NASA’s noise prediction tools for air taxis.

National Institute of Standards and Technology (NIST)
Gaithersburg, Maryland
NASA and NIST are investigating software for autonomous vehicles to improve the software verification and coordination.

North Central Texas Council of Governments
Arlington, Texas
NASA is working with city and state governments to brainstorm the ways that air taxis and drones, and the infrastructure for this new transportation system, could be integrated into city planning. NASA is exchanging information with these governments to identify the best practices for how a local government could design this system. Each city or state government involved will create a joint document with NASA using computer modeling software to describe how this could work in their locality.

Northrop Grumman
West Falls Church, Virginia
Palmdale, California

NASA and Northrop Grumman are investigating the use of large Uncrewed Aircraft Systems (UAS) for cargo transportation between airports and/or other National Airspace System (NAS) access points.

Notre Dame University
South Bend, Indiana
NASA, Notre Dame and Iowa State are developing and evaluating automated techniques for predicting, detecting, diagnosing, and mitigating diverse configuration problems and runtime failures in small Uncrewed Aerial Systems (sUAS), also called drones.

Ohio Department of Transportation (ODOT)
Springfield, Ohio
NASA and ODOT will share critical flight and ground operations safety data during flight tests. These flight tests will help evaluate safety management systems for highly-automated aircraft. In a separate effort, NASA and ODOT are exchanging information to advance autonomous cargo aircraft operations. NASA is also working with ODOT to brainstorm the ways that air taxis and drones, and the infrastructure for this new transportation system, could be integrated into city planning by creating a joint document with NASA using computer modeling software to describe how this could work in their locality.

Old Dominion University
Norfolk, Virginia
NASA and Old Dominion University are conducting studies focusing on the collaboration between humans and autonomous systems to see how the two would work together to manage large numbers of autonomous AAM flights. NASA is developing a Human Autonomy Teaming Task Battery to evaluate performance and workload for a human working with an autonomous system.

ONERA (Office National d’Etudes et de Recherches Aérospatiales) – The French Aerospace Lab
Palaiseau, France
In one effort, NASA and ONERA are using computational fluid dynamics (CFD), or the use of mathematics, physics and computational software to visualize how a gas or liquid flows, for broadband noise prediction of a hovering rotor to advance broadband noise prediction capabilities for AAM aircraft. In another effort, NASA and ONERA are collaborating on the acoustics modeling of ducted rotors with optimized liners. These findings will be used to improve the acoustic performance of future tilt-duct aircraft.

Penn State University
State College, Pennsylvania
NASA and Penn State are developing safe role allocations and communication between human-to-human or human-to-machine communication to assure new delegations of authority and responsibility will work in autonomous systems.

Stanford University
Stanford, California
NASA and Stanford are developing and demonstrating a framework for providing algorithmic assurances and designing fault detection, isolation, and recovery (FDIR) methods for those components of the autonomy stack that rely on data-driven methods based on machine learning.

University Of Central Florida (UCF)
Orlando, Florida
NASA is working with UCF to improve the safety of drones through data-driven predictive analytics. 

Université de Sherbrooke
Quebec, Canada
NASA and Université de Sherbrooke are investigating the noise generated by fundamental airfoil shapes. NASA will provide customized test articles that will be tested in the University’s anechoic wind tunnel facility. The findings will be used to improve noise predictions for a wide variety of aircraft.

U.S. Army Combat Capabilities Development Command (DEVCOM) and U.S. Navy Office of Naval Research (ONR) 
Moffett Field, California
Arlington, Virginia

Effort between NASA, DEVCOM and ONR to fund the Vertical Lift Research Centers of Excellence (VLRCOE). The VLRCOE program was renewed in 2021, with three awardees selected to receive approximately $22M in funding over five years. The Georgia Institute of Technology, Penn State University, and the University of Maryland were selected to perform research on a wide variety of vertical lift technology topics. In addition to establishing a workforce pipeline, this effort will help improve the safety, performance and affordability of civilian and military helicopters and other vertical lift aircraft.

University of Texas
Austin, Texas
NASA and several universities are demonstrating a NASA-created safety management system called “In-Time Learning-Based Safety Management for Scalable Heterogeneous AAM Operations.” This is a combined effort with George Washington University, Vanderbilt University, MIT/Lincoln Labs, and UT-Austin.

Vanderbilt University
Nashville, Tennessee
NASA and several universities are demonstrating a NASA-created safety management system called “In-Time Learning-Based Safety Management for Scalable Heterogeneous AAM Operations.” This is a combined effort with George Washington University, Vanderbilt University, MIT/Lincoln Labs, and UT-Austin.

Virginia Commonwealth University (VCU)
Richmond, Virginia
NASA, VCU and NIST are developing and evaluating an integrated model- and data-driven approach for risk monitoring to identify and predict elevated risk states for known risk(s) in autonomous technology.

Wisk
Mountain View, California
NASA and Wisk are testing the human response to autonomy to find management solutions for autonomous air taxis using only a small number of human ground operators. This research will lead to a better understanding of technology solutions needed to ensure safe, routine, multi-aircraft AAM flights.

Xwing
San Francisco, California
NASA and Xwing are sharing critical flight and ground operations data, algorithms, and evaluating safety management systems to ensure autonomous aircraft operations are safe. 

Zipline
San Francisco, California
NASA and Zipline are testing the human response to autonomy to find management solutions for autonomous air taxis using only a small number of human ground operators. This research will lead to a better understanding of technology solutions needed to ensure safe, routine, multi-aircraft AAM flights.

Active NASA Space Act Agreements and NASA Interagency Agreements that relate to Advanced Air Mobility (AAM) are listed here. NASA does not endorse any entity listed here. NASA works with research partners under these agreements to improve technology for the entire AAM industry’s benefit.

AAM Partners List (PDF)

Partnerships Contact

Jamie Turner

jamie.m.turner@nasa.gov

Media Contact

Teresa Whiting

teresa.whiting@nasa.gov

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Last Updated
Mar 20, 2024
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Lillian Gipson
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      The team has continued watching the GRS shrink since the OPAL program began 10 years ago. They predict it will keep shrinking before taking on a stable, less-elongated, shape. “Right now it’s over-filling its latitude band relative to the wind field. Once it shrinks inside that band the winds will really be holding it in place,” said Simon. The team predicts that the GRS will probably stabilize in size, but for now Hubble only observed it for one oscillation cycle.
      The researchers hope that in the future other high-resolution images from Hubble might identify other Jovian parameters that indicate the underlying cause of the oscillation.
      The results are being presented at the 56th annual meeting of the American Astronomical Society Division for Planetary Sciences, in Boise, Idaho.
      Jupiter’s iconic Great Red Spot, a storm larger than Earth, has fascinated astronomers for over 150 years. But thanks to NASA’s Hubble Space Telescope, we’re now seeing this legendary storm in a whole new light. Recent observations show that the Great Red Spot is wobbling and fluctuating in size.
      NASA’s Goddard Space Flight Center; Lead Producer: Paul Morris The Hubble Space Telescope has been operating for over three decades and continues to make ground-breaking discoveries that shape our fundamental understanding of the universe. Hubble is a project of international cooperation between NASA and ESA (European Space Agency). NASA’s Goddard Space Flight Center in Greenbelt, Maryland, manages the telescope and mission operations. Lockheed Martin Space, based in Denver, Colorado, also supports mission operations at Goddard. The Space Telescope Science Institute in Baltimore, Maryland, which is operated by the Association of Universities for Research in Astronomy, conducts Hubble science operations for NASA.
      Learn More

      Hubble Shows Winds in Jupiter’s Great Red Spot Are Speeding Up


      Telescopes and Spacecraft Join Forces to Probe Deep into Jupiter’s Atmosphere


      Hubble’s Grand Tour of the Outer Solar System

      Facebook logo @NASAHubble @NASAHubble Instagram logo @NASAHubble Media Contacts:
      Claire Andreoli
      NASA’s Goddard Space Flight Center, Greenbelt, MD
      claire.andreoli@nasa.gov
      Ray Villard
      Space Telescope Science Institute, Baltimore, MD
      Science Contacts:
      Amy Simon
      NASA Goddard Space Flight Center, Greenbelt, MD
      Michael H. Wong
      University of California, Berkeley, Berkeley, CA
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      Last Updated Oct 09, 2024 Editor Andrea Gianopoulos Location NASA Goddard Space Flight Center Related Terms
      Astrophysics Division Goddard Space Flight Center Hubble Space Telescope Jupiter Missions Planetary Science Planets The Solar System Keep Exploring Discover More Topics From Hubble
      Hubble Space Telescope


      Since its 1990 launch, the Hubble Space Telescope has changed our fundamental understanding of the universe.


      Studying the Outer Planets and Moons



      Hubble Focus: Our Amazing Solar System


      Studying the cosmos for over a quarter century, the Hubble Space Telescope has made more than a million observations and…


      Hubble Posters


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    • By NASA
      4 Min Read NASA Terminal Transmits First Laser Communications Uplink to Space 
      NASA's LCOT (Low-Cost Optical Terminal) located at the agency's Goddard Space Flight Center in Greenbelt, Md. Credits: NASA NASA’s LCOT (Low-Cost Optical Terminal), a ground station made of modified commercial hardware, transmitted its first laser communications uplink to the TBIRD (TeraByte Infrared Delivery), a tissue box-sized payload formerly in low Earth orbit.
      During the first live sky test, NASA’s LCOT produced enough uplink intensity for the TBIRD payload to identify the laser beacon, connect, and maintain a connection to the ground station for over three minutes. This successful test marks an important achievement for laser communications: connecting LCOT’s laser beacon from Earth to TBIRD required one milliradian of pointing accuracy, the equivalent of hitting a three-foot target from over eight American football fields away.
      The test was one of many laser communications achievements TBIRD made possible during its successful, two-year mission. Prior to its mission completion on Sept. 15, 2024, the payload transmitted at a record-breaking 200 gigabits per second. In an actual use case, TBIRD’s three-minute connection time with LCOT would be sufficient to return over five terabytes of critical science data, the equivalent of over 2,500 hours of high-definition video in a single pass. As the LCOT sky test demonstrates, the ultra-high-speed capabilities of laser communications will allow science missions to maintain their connection to Earth as they travel farther than ever before.
      Measurement data of the power, or “fluency,” of the connection between NASA’s LCOT (Low-Cost Optical Terminal) laser beacon and TBIRD’s (TeraByte Infrared Delivery) receiver provided by Massachusetts Institute of Technology Lincoln Laboratory (MIT-LL). LCOT and TBIRD maintained a sufficient connection for over three minutes — enough time for TBIRD to return over five terabytes of data. NASA/Dave Ryan NASA’s SCaN (Space Communications and Navigation) program office is implementing laser communications technology in various orbits, including the upcoming Artemis II mission, to demonstrate its potential impact in the agency’s mission to explore, innovate, and inspire discovery.
      “Optical, or laser, communications can transfer 10 to 100 times more data than radio frequency waves,” said Kevin Coggins, deputy associate administrator and SCaN program manager. “Literally, it’s the wave of the future, as it’ll enable scientists to realize an ever-increasing amount of data from their missions and will serve as our critical lifeline for astronauts traveling to and from Mars.” 
      To view this video please enable JavaScript, and consider upgrading to a web browser that supports HTML5 video
      A recording of TBIRD’s (TeraByte Infrared Delivery) successful downlink from NASA’s LCOT (Low-Cost Optical Terminal) Wide Field Camera. The light saturation from the downlink caused a secondary reflection in the upper right of the video.NASA Historically, space missions have used radio frequencies to send data to and from space, but with science instruments capturing more data, communications assets must meet increasing demand. The infrared light used for laser communications transmits the data at a shorter wavelength than radio, meaning ground stations on Earth can send and receive more data per second. 
      The LCOT team continues to refine pointing capabilities through additional tests with NASA’s LCRD (Laser Communications Relay Demonstration). As LCOT and the agency’s other laser communications missions continue to reach new milestones in connectivity and accessibility, they demonstrate laser communications’ potential to revolutionize scientists’ access to new data about Earth, our solar system, and beyond. 
      “It’s a testament to the hard work and skill of the entire team,” said Dr. Haleh Safavi, project lead for LCOT. “We work with very complicated and sensitive transmission equipment that must be installed with incredible precision. These results required expeditious planning and execution at every level.” 
      NASA’s LCOT (Low-Cost Optical Terminal) at the agency’s Goddard Space Flight Center in Greenbelt, Maryland, uses slightly modified commercial hardware to reduce the expense of implementing laser communications technology. NASA Experiments like TBIRD and LCRD are only two of SCaN’s multiple in-space demonstrations of laser communications, but a robust laser communications network relies on easily reconfigurable ground stations on Earth. The LCOT ground station showcases how the government and aerospace industry can build and deploy flexible laser communications ground stations to meet the needs of a wide variety of NASA and commercial missions, and how these ground stations open new doors for communications technology and extremely high data volume transmission. 
      NASA’s LCOT is developed by the agency’s Goddard Space Flight Center in Greenbelt, Maryland. TBIRD was developed in partnership with the Massachusetts Institute of Technology Lincoln Laboratory (MIT-LL) in Lexington. TBIRD was flown and operated as a collaborative effort among NASA Goddard; NASA’s Ames Research Center in California’s Silicon Valley; NASA’s Jet Propulsion Laboratory in Southern California; MIT-LL; and Terran Orbital Corporation in Irvine, California. Funding and oversight for LCOT and other laser communications demonstrations comes from the (SCaN) Space Communications and Navigation  program office within the Space Operations Mission Directorate at NASA Headquarters in Washington. 
      About the Author
      Korine Powers
      Senior Writer and Education LeadKorine Powers, Ph.D. is a writer for NASA's Space Communications and Navigation (SCaN) program office and covers emerging technologies, commercialization efforts, education and outreach, exploration activities, and more.
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      Last Updated Oct 09, 2024 EditorKorine PowersContactKatherine Schauerkatherine.s.schauer@nasa.govLocationGoddard Space Flight Center Related Terms
      Space Communications Technology Communicating and Navigating with Missions Goddard Space Flight Center Space Communications & Navigation Program Space Operations Mission Directorate Technology Technology Demonstration View the full article
    • By NASA
      Learn Home How Do Astronauts Get in… Astronauts Overview Learning Resources Science Activation Teams SME Map Opportunities More Science Activation Stories Citizen Science   2 min read
      How Do Astronauts Get in Shape? – New “Ask SME” from NASA eClips
      The NASA Science Activation program’s NASA eClips project, led by the National Institute of Aerospace (NIA), aims to increase Science, Technology, Engineering, & Mathematics (STEM) literacy and inspire the next generation of engineers and scientists by providing effective web-based, standards-aligned, in-school and out-of-school learning and teaching resources through the lens of NASA.
      As a part of this work, NASA eClips professionally produces the Ask SME: Close-up With a NASA Subject Matter Expert video series to capture a glimpse of NASA SME’s personal interests and career journeys. Each video can be used to spark student interest and broaden their ideas of who the Science, Technology, Engineering, and Mathematics (STEM) workforce might include (everyone!) and the kinds of work they do.
      On September 19, 2024, NASA eClips released the most recent video in the Ask SME series, featuring Corey Twine from NASA’s Johnson Space Center. Twine is an Astronaut Strength and Conditioning Specialist who works with astronauts to keep them physically fit for work on Earth and while they are in space. He shares insights about how he helps the astronauts and what inspired him to pursue this career.
      Watch the Video
      NASA eClips is supported by NASA under cooperative agreement award number NNX16AB91A and is part of NASA’s Science Activation Portfolio. Learn more about how Science Activation connects NASA science experts, real content, and experiences with community leaders to do science in ways that activate minds and promote deeper understanding of our world and beyond: https://science.nasa.gov/learn
      SME Corey Twine, Astronaut Strength & Conditioning Specialist Share








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      Last Updated Oct 09, 2024 Editor NASA Science Editorial Team Location Johnson Space Center Related Terms
      Astronauts For Educators People of Johnson Science Activation Explore More
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