Technicians and engineers with Jacobs on the Test and Operations Support Contract, prepare for a swing test of the Core Stage Inter-tank Umbilical (CSITU) on the mobile launcher in High Bay 3 of the Vehicle Assembly Building on Feb. 22, 2019, at NASA's Kennedy Space Center in Florida. The CSITU is a swing-arm umbilical that will connect to the Space Launch System core stage inter-tank. It will provide conditioned air, pressurized gases and power and data connection to the core stage. Exploration Ground Systems at Kennedy is conducting the swing test.
A view of the new work platforms in High Bay 3 of the Vehicle Assembly Building on Feb. 22, 2019, at NASA’s Kennedy Space Center in Florida. Preparations are underway to perform an initial swing test of the Core Stage Inter-tank Umbilical (CSITU) on the mobile launcher. The CSITU is a swing-arm umbilical that will connect to the Space Launch System core stage inter-tank. It will provide conditioned air, pressurized gases and power and data connection to the core stage. Exploration Ground Systems at Kennedy is conducting the swing test.
A view from above of new work platforms in High Bay 3 of the Vehicle Assembly Building on Feb. 22, 2019, at NASA’s Kennedy Space Center in Florida. Preparations are underway to perform an initial swing test of the Core Stage Inter-tank Umbilical (CSITU) on the mobile launcher. The CSITU is a swing-arm umbilical that will connect to the Space Launch System core stage inter-tank. It will provide conditioned air, pressurized gases and power and data connection to the core stage. Exploration Ground Systems at Kennedy is conducting the swing test.
Preparations are underway to perform a preliminary swing test of the Core Stage Inter-tank Umbilical (CSITU) on the mobile launcher in High Bay 3 of the Vehicle Assembly Building on Feb. 22, 2019, at NASA's Kennedy Space Center in Florida. The CSITU is a swing-arm umbilical that will connect to the Space Launch System core stage inter-tank. It will provide conditioned air, pressurized gases and power and data connection to the core stage. The Exploration Ground Systems Program is overseeing installation of the umbilicals.
NASA operations engineer Daniel Velasquez, left, is reviewing the Mobile Vertipad Sensor Package system as part of the Air Mobility Pathways test project at NASA's Armstrong Flight Research Center in Edwards, California on October 17, 2023. The portable system allows Advanced Air Mobility researchers to test and evaluate several factors involved in monitoring takeoff and landing conditions at vertipad sites. "Vertipads" or "vertiports" will be where future air taxis will land and take off to transport passengers.
NASA operations engineer Daniel Velasquez, left, is reviewing the Mobile Vertipad Sensor Package system as part of the Air Mobility Pathways test project at NASA's Armstrong Flight Research Center in Edwards, California on October 17, 2023. The portable system allows Advanced Air Mobility researchers to test and evaluate several factors involved in monitoring takeoff and landing conditions at vertipad sites. "Vertipads" or "vertiports" will be where future air taxis will land and take off to transport passengers.
NASA software developer, Ethan Williams, left, pilot Scott Howe, and operations test consultant Jan Scofield run a flight path management software simulation at NASA’s Armstrong Flight Research Center in Edwards, California in May 2023. This simulation research supports the integration of automated systems for the advanced air mobility mission.
A test engineer drives a Mobility Test Article (MTA) during a test of a Lunar Roving Vehicle (LRV) concept through the mountains of Arizona. The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
Outside a regolith bin at the agency's Kennedy Space center in Florida, an engineer operates controls for a lightweight simulator version of NASA's Resource Prospector during a mobility test. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
A lightweight simulator version of NASA's Resource Prospector undergoes a mobility test in a regolith bin at the agency's Kennedy Space center in Florida. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
A lightweight simulator version of NASA's Resource Prospector undergoes a mobility test in a regolith bin at the agency's Kennedy Space center in Florida. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
A lightweight simulator version of NASA's Resource Prospector undergoes a mobility test in a regolith bin at the agency's Kennedy Space center in Florida. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
Engineers wearing protecting garb, make adjustments to a lightweight simulator version of NASA's Resource Prospector undergoes a mobility test in a regolith bin at the agency's Kennedy Space center in Florida. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
A lightweight simulator version of NASA's Resource Prospector undergoes a mobility test in a regolith bin at the agency's Kennedy Space center in Florida. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
A lightweight simulator version of NASA's Resource Prospector undergoes a mobility test in a regolith bin at the agency's Kennedy Space center in Florida. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
A lightweight simulator version of NASA's Resource Prospector undergoes a mobility test in a regolith bin at the agency's Kennedy Space center in Florida. The Resource Prospector mission aims to be the first mining expedition on another world. Operating on the moon’s poles, the robot is designed to use instruments to locate elements at a lunar polar regions, then excavate and sample resources such as hydrogen, oxygen and water. These resources could support human explores on their way to destinations such as farther into the solar system.
NASA employees Broderic J. Gonzalez, left, and David W. Shank, right, install pieces of a 7-foot wing model in preparation for testing in the 14-by-22-Foot Subsonic Wind Tunnel at NASA's Langley Research Center in Hampton, Virginia, in May 2025. The lessons learned from this testing will be shared with the public to support advanced air mobility aircraft development.
A swing test of the Orion crew access arm, top right, is in progress on the mobile launcher at NASA's Kennedy Space Center in Florida, on Aug. 21, 2018. The crew access arm is located at about the 274-foot level on the mobile launcher tower. It will rotate from its retracted position and interface with the Orion crew hatch location to provide entry to the Orion crew module. Exploration Ground Systems extended all of the launch umbilicals on the ML tower to test their functionality before the mobile launcher, atop crawler-transporter 2, is moved to Launch Pad 39B and the Vehicle Assembly Building.
A swing test of the Orion crew access arm, topmost umbilical, is in progress on the mobile launcher at NASA's Kennedy Space Center in Florida, on Aug. 21, 2018. The crew access arm is located at about the 274-foot level on the mobile launcher tower. It will rotate from its retracted position and interface with the Orion crew hatch location to provide entry to the Orion crew module. Exploration Ground Systems extended all of the launch umbilicals on the ML tower to test their functionality before the mobile launcher, atop crawler-transporter 2, is moved to Launch Pad 39B and the Vehicle Assembly Building.
A swing test of the Orion crew access arm, top right, begins on the mobile launcher at NASA's Kennedy Space Center in Florida, on Aug. 21, 2018. The crew access arm is located at about the 274-foot level on the mobile launcher tower. It will rotate from its retracted position and interface with the Orion crew hatch location to provide entry to the Orion crew module. Exploration Ground Systems extended all of the launch umbilicals on the ML tower to test their functionality before the mobile launcher, atop crawler-transporter 2, is moved to Launch Pad 39B and the Vehicle Assembly Building.
A swing test of the Orion crew access arm is in progress on the mobile launcher at NASA's Kennedy Space Center in Florida, on Aug. 21, 2018. The crew access arm is located at about the 274-foot level on the mobile launcher tower. It will rotate from its retracted position and interface with the Orion crew hatch location to provide entry to the Orion crew module. Exploration Ground Systems extended all of the launch umbilicals on the ML tower to test their functionality before the mobile launcher, atop crawler-transporter 2, is moved to Launch Pad 39B and the Vehicle Assembly Building.
A swing test of the Orion crew access arm, topmost umbilical, is in progress on the mobile launcher at NASA's Kennedy Space Center in Florida, on Aug. 21, 2018. The crew access arm is located at about the 274-foot level on the mobile launcher tower. It will rotate from its retracted position and interface with the Orion crew hatch location to provide entry to the Orion crew module. Exploration Ground Systems extended all of the launch umbilicals on the ML tower to test their functionality before the mobile launcher, atop crawler-transporter 2, is moved to Launch Pad 39B and the Vehicle Assembly Building.
A swing test of the Orion crew access arm, topmost umbilical, is in progress on the mobile launcher at NASA's Kennedy Space Center in Florida, on Aug. 21, 2018. The crew access arm is located at about the 274-foot level on the mobile launcher tower. It will rotate from its retracted position and interface with the Orion crew hatch location to provide entry to the Orion crew module. Exploration Ground Systems extended all of the launch umbilicals on the ML tower to test their functionality before the mobile launcher, atop crawler-transporter 2, is moved to Launch Pad 39B and the Vehicle Assembly Building.
A swing test of the Orion crew access arm, top right, is in progress on the mobile launcher at NASA's Kennedy Space Center in Florida, on Aug. 21, 2018. The crew access arm is located at about the 274-foot level on the mobile launcher tower. It will rotate from its retracted position and interface with the Orion crew hatch location to provide entry to the Orion crew module. Exploration Ground Systems extended all of the launch umbilicals on the ML tower to test their functionality before the mobile launcher, atop crawler-transporter 2, is moved to Launch Pad 39B and the Vehicle Assembly Building.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
NASA’s Exploration Ground Systems conducts a water flow test with the mobile launcher at Kennedy Space Center’s Pad 39B in Florida on July 2, 2019. It is the first of nine tests to verify the sound suppression system is ready for launch of NASA’s Space Launch System for the first Artemis mission. During launch, 400,000 gallons of water will rush onto the pad to help protect the rocket, NASA’s Orion Spacecraft, mobile launcher, and launch pad from the extreme acoustic and temperature environment.
In this June 1966 photograph, Marshall Space Flight Center Director Dr. Wernher von Braun test-drives the Mobility Test Article (MTA), a developmental vehicle built by the Bendix Corporation to test lunar mobility vehicle concepts. The data provided by the MTA helped in designing the Lunar Roving Vehicle (LRV), developed under the direction of the MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions. The LRVs were deployed during the last three Apollo missions; Apollo 15, Apollo 16, and Apollo 17.
NASA researcher Norman W. Schaeffler adjusts a propellor, which is part of a 7-foot wing model that was recently tested at NASA’s Langley Research Center in Hampton, Virginia. In May and June, NASA researchers tested the wing in the 14-by-22-Foot Subsonic Wind Tunnel to collect data on critical propeller-wing interactions. The lessons learned from this testing will be shared with the public to support advanced air mobility aircraft development.
A test engineer drove a Mobility Test Article (MTA) of a possible future Lunar Roving Vehicle (LRV) over rocks during tests in Arizona. The machine was built by General Motors for NASA’s Marshall Space Flight Center (MSFC). Under the direction of MSFC, the LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
Artist’s concept of a Lunar Roving Vehicle (LRV) Mobility Test Article (MTA) on the Lunar surface. The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
A concept of a possible Lunar Roving Vehicle (LRV) built for NASA’s Marshall Space Flight Center (MSFC). This Mobility Test Article (MTA) is one of many that provided data contributing to the design of the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
Newsmen watch a test engineer drive a Mobility Test Article (MTA) demonstrated at NASA’s Marshall Space Flight Center (MSFC). This unit, built by the Bendix Corporation, was one of the concepts of a possible Lunar Roving Vehicle (LRV). The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
A concept of a possible Lunar Roving Vehicle (LRV) built by the Grumman Industries for NASA’s Marshall Space Flight Center (MSFC), this Mobility Test Article (MTA) is undergoing a full fledged test, complete with space suit attire. The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
Teams with Exploration Ground Systems at NASA’s Kennedy Space Center in Florida make upgrades and repairs on mobile launcher 1 at its park site location on July 20, 2023, ahead of the first critical ground testing for Artemis II. Under Artemis, the mobile launcher will transport NASA’s Space Launch System rocket and Orion spacecraft to Kennedy’s Launch Complex 39B for liftoff. Artemis II will be the first Artemis mission flying crew aboard Orion.
With the iconic Vehicle Assembly Building at NASA’s Kennedy Space Center in Florida nearby, teams with Exploration Ground Systems make upgrades and repairs on mobile launcher 1 at its park site location on July 20, 2023, ahead of the first critical ground testing for Artemis II. Under Artemis, the mobile launcher will transport NASA’s Space Launch System rocket and Orion spacecraft to Kennedy’s Launch Complex 39B for liftoff. Artemis II will be the first Artemis mission flying crew aboard Orion.
Teams with Exploration Ground Systems at NASA’s Kennedy Space Center in Florida make upgrades and repairs on mobile launcher 1 at its park site location on July 20, 2023, ahead of the first critical ground testing for Artemis II. Under Artemis, the mobile launcher will transport NASA’s Space Launch System rocket and Orion spacecraft to Kennedy’s Launch Complex 39B for liftoff. Artemis II will be the first Artemis mission flying crew aboard Orion.
iss060e007162 (July 12, 2020) --- NASA astronaut and Expedition 60 Flight Engineer Christina Koch tests the mobility of the free-flying Astrobee robotic assistant inside the Kibo laboratory module. Astrobee consists of three self-contained, free flying robots and a docking station inside the International Space Station.
An engineer demonstrates a Mobility Test Article (MTA) at NASA’s Marshall Space Flight Center (MSFC). This unit, weighing 1/6th as much as an actual vehicle, was built by the Bendix Corporation and was one of the concepts of a possible Lunar Roving Vehicle (LRV). The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
This Mobility Test Article (MTA), built by the Bendix Corporation for NASA’s Marshall Space Flight Center (MSFC), was driven over rocks in Arizona. The data provided by the MTA helped in designing the Lunar Roving Vehicle (LRV), developed under the direction of the MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
This Mobility Test Article (MTA) was a concept of a possible dual mode Lunar Roving Vehicle (LRV) built by the Grumman Industries for NASA’s Marshall Space Flight Center (MSFC). The data provided by the MTA helped in designing the Lunar Roving Vehicle (LRV), developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
An engineer demonstrates a Mobility Test Article (MTA) at NASA’s Marshall Space Flight Center (MSFC). This unit, weighing 1/6th as much as an actual vehicle, was built by the Bendix Corporation and was one of the concepts of a possible Lunar Roving Vehicle (LRV). The data provided by the MTA helped in designing the Lunar Roving Vehicle (LRV), developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
A concept of a possible Lunar Roving Vehicle (LRV) built by the Bendix Corporation for NASA’s Marshall Space Flight Center (MSFC). This Mobility Test Article (MTA) is being inspected by a Bendix technician. The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
Newsmen listen as an engineer explains operations and capabilities of a Mobility Test Article (MTA) demonstrated at NASA’s Marshall Space Flight Center (MSFC). This unit, built by the Bendix Corporation, was one of the concepts of a possible Lunar Roving Vehicle (LRV). The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
An engineer demonstrates a Mobility Test Article (MTA) at NASA’s Marshall Space Flight Center (MSFC) as he crosses a soft clay strip onto rocky ground. This unit, weighing 1/6th as much as an actual vehicle, was built by the Bendix Corporation and was one of the concepts of a possible Lunar Roving Vehicle (LRV). The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
An engineer demonstrates a Mobility Test Article (MTA) at NASA’s Marshall Space Flight Center (MSFC) as he goes down a slope onto soft earth. This unit, weighing 1/6th as much as an actual vehicle, was built by the Bendix Corporation and was one of the concepts of a possible Lunar Roving Vehicle (LRV). The data provided by the MTA helped in designing the Lunar Roving Vehicle (LRV), developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
An engineer demonstrates a Mobility Test Article (MTA) at NASA’s Marshall Space Flight Center (MSFC). This unit, weighing 1/6th as much as an actual vehicle, was built by the Bendix Corporation and was one of the concepts of a possible Lunar Roving Vehicle (LRV). The data provided by the MTA helped in designing the Lunar Roving Vehicle (LRV), developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
NASA Advanced Air Mobility project’s National Campaign mobile testing trailer is pictured at NASA Armstrong Flight Research Center in Edwards California on July 20, 2022. This trailer supports the Mobile Operations Facility’s data transmission when deployed to test locations.
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
The team developing NASA Mars Science Laboratory calls this test rover Scarecrow because the vehicle does not include a computer brain. Mobility engineers use this test rover to evaluate mobility and suspension performance.
New decals are shown in this image of NASA's Mobile Operations Facility at NASA Armstrong Flight Research Center in Edwards, California on July 20, 2022. NASA's Advanced Air Mobility Project’s National Campaign uses the vehicle for mobile testing efforts.
Artist’s manned and unmanned concepts of a Lunar Roving Vehicle (LRV) Mobility Test Article (MTA) on the Lunar surface. The data provided by the MTA helped in designing the LRV, developed under the direction of MSFC. The LRV was designed to allow Apollo astronauts a greater range of mobility during lunar exploration missions.
Working in the Mobile Operations Facility at NASA’s Armstrong Flight Research Center in Edwards, California, NASA Advanced Air Mobility researcher Dennis Iannicca adjusts a control board to capture Automatic Dependent Surveillance-Broadcast (ADS-B) data during test flights. The data will be used to understand ADS-B signal loss scenarios for air taxi flights in urban areas.
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
Virtual Intelligent Planetary Exploration Rover, VIPER Mobility Platform Testing
In this June, 1966 photograph, Marshall Space Flight Center Director, Dr. Wernher von Braun test drives the Mobility Test Article (MTA), a developmental vehicle built by the Bendix Corporation to test lunar mobility concepts. The data provided by the MTA helped in designing the Lunar Roving Vehicle (LRV), developed under the direction of the Marshall Space Flight Center. The LRV was designed to allow Apollo astronauts a greater range during lunar exploration missions and served its purpose during the last three Apollo lunar missions in 1971 and 1972.
Housed at NASA Armstrong Flight Research Center in Edwards, California, the Advanced Air Mobility project's National Campaign upgraded the Mobile Operations Facility, pictured here on July 20, 2022. This command center on wheels is a key piece of NASA's AAM testing.
The upgraded NASA Mobile Operations Facility, a mission control and data collection center on wheels, is shown parked at NASA’s Armstrong Flight Research Center in Edwards, California on July 20, 2022. This vehicle is used for NASA's Advanced Air Mobility project’s National Campaign testing.
The NASA Mobile Operations Facility sports new decals while parked at NASA Armstrong Flight Research Center in Edwards, California on July 20, 2022. This vehicle, also known as the MOF, is a mission control and data collection center on wheels. NASA's Advanced Air Mobility project uses it for testing.
Scarecrow, a mobility-testing model for NASA Mars Science Laboratory, easily traverses large rocks in the Mars Yard testing area at NASA Jet Propulsion Laboratory.
In this view looking up in High Bay 3 of the Vehicle Assembly Building at NASA’s Kennedy Space Center in Florida, a preliminary swing test is being performed on the Core Stage Inter-tank Umbilical (CSITU) on Feb. 22, 2019. The CSITU is a swing-arm umbilical that will connect to the Space Launch System core stage inter-tank. It will provide conditioned air, pressurized gases and power and data connection to the core stage. Exploration Ground Systems at Kennedy is conducting the swing test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.
A wet flow test at Launch Pad 39B on September 13, 2019, tests the sound suppression system that will be used for launch of NASA’s Space Launch System for the Artemis I mission. During the test, about 450,000 gallons of water poured onto the Pad B flame deflector, the mobile launcher flame hole and onto the launcher’s blast deck. This was the first time the ground launch sequencer that will be used on the day of launch was used for the timing of a sound suppression test.