NASA Phoenix Mars Lander will enter the Martian atmosphere at hypersonic speeds.

Hypersonic test bed model with shock generator

Hypersonic test bed model with shock generator and M. Kussoy

Hypersonic test bed model with shock generator and M. Kussoy

Hypersonic Boost Glider in 11 Inch Hypersonic Tunnel L57-1681 In 1957 Langley tested its HYWARDS design in the 11 Inch Hypersonic Tunnel. Photograph published in Engineer in Charge: A History of the Langley Aeronautical Laboratory, 1917-1958 by James R. Hansen. Page 369.

L57-1439 A model based on Langley s concept of a hypersonic glider was test flown on an umbilical cord inside the Full Scale Tunnel in 1957. Photograph published in Engineer in Charge: A History of the Langley Aeronautical Laboratory, 1917-1958 by James R. Hansen. Page 374.

The first of three X-43A hypersonic research aircraft was mated to its modified Pegasus® booster rocket in late January at NASA's Dryden Flight Research Center, Edwards, Calif.

Scale-model of final X-15 configuration, mounted for testing in the Langley 11-Inch Hypersonic Tunnel.

Local for Hypersonic Continuous Flow Facility

NASA’s C-20A with Generation Orbit’s hypersonic testbed attached is chased by the agency’s F-18 jet for safety and photography.

In the skies above NASA Armstrong in Southern California, Generation Orbit’s hypersonic pod is flight tested on agency C-20A.

NASA’s C-20A with Generation Orbit’s hypersonic pod attached undergoes flight test overs skies of Armstrong Flight Research Center.

High 3/4 top front view of model in Ames 40x80 foot wind tunnel. Bob Bishop in lower right. Delta Wing with Conard.

11-Inch Hypersonic Tunnel: various models tested in the tunnel.

NASA's B-52B aircraft over the Dryden Flight Research Center after the successful launch of the second X-43A hypersonic research vehicle.

NASA's B-52B launch aircraft at sunset with the second X-43A hypersonic research vehicle attached to a modified Pegasus rocket under its right wing.

Jonathan Lopez works on a hypersonic Fiber Optic Sensing System at NASA’s Armstrong Flight Research Center in Edwards, California, on Feb. 13, 2025. The system measures strain and temperature, critical safety data for hypersonic vehicles that travel five time the speed of sound.

Jonathan Lopez and Nathan Rick prepare the hypersonic Fiber Optic Sensing System for vibration tests in the Environmental Laboratory at NASA’s Armstrong Flight Research Center in Edwards, California. Testing on a machine called a shaker proved that the system could withstand the severe vibration it will endure in hypersonic flight, or travel at five times the speed of sound.

Jonathan Lopez and Allen Parker confer on the hypersonic Fiber Optic Sensor System at NASA’s Armstrong Flight Research Center in Edwards, California, on February 13, 2025. The system measures strain and temperature, critical safety data for hypersonic vehicles that travel five time the speed of sound.

Jonathan Lopez prepares the hypersonic Fiber Optic Sensing System for vibration tests in the Environmental Laboratory at NASA’s Armstrong Flight Research Center in Edwards, California. Testing on a machine called a shaker proved that the system could withstand the severe vibration it will endure in hypersonic flight, or travel at five times the speed of sound.

Jonathan Lopez prepares the hypersonic Fiber Optic Sensing System for vibration tests in the Environmental Laboratory at NASA’s Armstrong Flight Research Center in Edwards, California. Testing on a machine called a shaker proved that the system could withstand the severe vibration it will endure in hypersonic flight, or travel at five times the speed of sound.

An inert AIM-54 Phoenix missile nestled under the fuselage of NASA Dryden's F-15B aircraft is being studied as a possible test vehicle to obtain hypersonic data.

The second X-43A hypersonic research vehicle, mounted under the right wing of the B-52B launch aircraft, viewed from the B-52 cockpit. The crew is working on closing out the research vehicle, preparing it for flight.

Surplus Navy Phoenix missiles like this one mounted on the centerline pylon of NASA's F-15B research aircraft may be used to acquire hypersonic flight test data.

The HIAD stands for Hypersonic Inflatable Aerodynamic Decelerator, an inflatable spacecraft technology that allows payloads to survive the harsh conditions of atmospheric re-entry. This photo was taken at NASA Langley in Building 1250 when sensors were being applied.

The HIAD stands for Hypersonic Inflatable Aerodynamic Decelerator, an inflatable spacecraft technology that allows payloads to survive the harsh conditions of atmospheric re-entry. This photo was taken at NASA Langley in Building 1250 when sensors were being applied.

An artist's rendering of the air-breathing, hypersonic X-43B, the third and largest of NASA's Hyper-X series flight demonstrators, which could fly later this decade. Revolutionizing the way we gain access to space is NASA's primary goal for the Hypersonic Investment Area, managed for NASA by the Advanced Space Transportation Program at the Marshall Space Flight Center in Huntsville, Alabama. The Hypersonic Investment area, which includes leading-edge partners in industry and academia, will support future generation reusable vehicles and improved access to space. These technology demonstrators, intended for flight testing by decade's end, are expected to yield a new generation of vehicles that routinely fly about 100,000 feet above Earth's surface and reach sustained speeds in excess of Mach 5 (3,750 mph), the point at which "supersonic" flight becomes "hypersonic" flight. The flight demonstrators, the Hyper-X series, will be powered by air-breathing rocket or turbine-based engines, and ram/scramjets. Air-breathing engines, known as combined-cycle systems, achieve their efficiency gains over rocket systems by getting their oxygen for combustion from the atmosphere, as opposed to a rocket that must carry its oxygen. Once a hypersonic vehicle has accelerated to more than twice the speed of sound, the turbine or rockets are turned off, and the engine relies solely on oxygen in the atmosphere to burn fuel. When the vehicle has accelerated to more than 10 to 15 times the speed of sound, the engine converts to a conventional rocket-powered system to propel the craft into orbit or sustain it to suborbital flight speed. NASA's series of hypersonic flight demonstrators includes three air-breathing vehicles: the X-43A, X-43B and X-43C.

From left, April Torres and Karen Estes watch incoming data from vibration tests on the hypersonic Fiber Optic Sensing System at NASA’s Armstrong Flight Research Center in Edwards California. Testing on a machine called a shaker proved that the system could withstand the severe vibration it will endure in hypersonic flight, or travel at five times the speed of sound.

April Torres, from left, Cryss Punteney, and Karen Estes watch as data flows from the hypersonic Fiber Optic Sensing System at NASA’s Armstrong Flight Research Center in Edwards, California. Testing on a machine called a shaker proved that the system could withstand the severe vibration it will endure in hypersonic flight, or travel at five times the speed of sound.

The X-43A hypersonic research aircraft and its modified Pegasus® booster rocket are nestled under the wing of NASA's NB-52B carrier aircraft during pre-flight systems testing at the Dryden Flight Research Center, Edwards, Calif. The combined systems test was one of the last major milestones in the Hyper-X research program before the first X-43A flight. The X-43A flights will be the first actual flight tests of an aircraft powered by a revolutionary supersonic-combustion ramjet ("scramjet") engine capable of operating at hypersonic speeds (above Mach 5, or five times the speed of sound). The 12-foot, unpiloted research vehicle was developed and built by MicroCraft Inc., Tullahoma, Tenn., under NASA contract. The booster was built by Orbital Sciences Corp., Dulles, Va. After being air-launched from NASA's venerable NB-52 mothership, the booster will accelerate the X-43A to test speed and altitude. The X-43A will then separate from the rocket and fly a pre-programmed trajectory, conducting aerodynamic and propulsion experiments until it descends into the Pacific Ocean. Three research flights are planned, two at Mach 7 and one at Mach 10.

As part of a combined systems test conducted by NASA Dryden Flight Research Center, NASA's NB-52B carrier aircraft rolls down a taxiway at Edwards Air Force Base with the X-43A hypersonic research aircraft and its modified Pegasus® booster rocket attached to a pylon under its right wing. The taxi test was one of the last major milestones in the Hyper-X research program before the first X-43A flight. The X-43A flights will be the first actual flight tests of an aircraft powered by a revolutionary supersonic-combustion ramjet ("scramjet") engine capable of operating at hypersonic speeds (above Mach 5, or five times the speed of sound). The 12-foot, unpiloted research vehicle was developed and built by MicroCraft Inc., Tullahoma, Tenn., under NASA contract. The booster was built by Orbital Sciences Corp., Dulles, Va. After being air-launched from NASA's venerable NB-52 mothership, the booster will accelerate the X-43A to test speed and altitude. The X-43A will then separate from the rocket and fly a pre-programmed trajectory, conducting aerodynamic and propulsion experiments until it descends into the Pacific Ocean. Three research flights are planned, two at Mach 7 and one at Mach 10.

NASA's NB-52B carrier aircraft rolls down a taxiway at Edwards Air Force Base with the X-43A hypersonic research aircraft and its modified Pegasus® booster rocket slung from a pylon under its right wing. Part of a combined systems test conducted by NASA's Dryden Flight Research Center at Edwards, the taxi test was one of the last major milestones in the Hyper-X research program before the first X-43A flight. The X-43A flights will be the first actual flight tests of an aircraft powered by a revolutionary supersonic-combustion ramjet ("scramjet") engine capable of operating at hypersonic speeds (above Mach 5, or five times the speed of sound). The 12-foot, unpiloted research vehicle was developed and built by MicroCraft Inc., Tullahoma, Tenn., under NASA contract. The booster was built by Orbital Sciences Corp., Dulles, Va.,After being air-launched from NASA's venerable NB-52 mothership, the booster will accelerate the X-43A to test speed and altitude. The X-43A will then separate from the rocket and fly a pre-programmed trajectory, conducting aerodynamic and propulsion experiments until it descends into the Pacific Ocean. Three research flights are planned, two at Mach 7 and one at Mach 10, with the first tentatively scheduled for late spring to early summer, 2001.

The first of three X-43A hypersonic research aircraft and its modified Pegasus® booster rocket recently underwent combined systems testing while mounted to NASA's NB-52B carrier aircraft at the Dryden Flight Research Center, Edwards, Calif. The combined systems test was one of the last major milestones in the Hyper-X research program before the first X-43A flight. The X-43A flights will be the first actual flight tests of an aircraft powered by a revolutionary supersonic-combustion ramjet ("scramjet") engine capable of operating at hypersonic speeds (above Mach 5, or five times the speed of sound). The 12-foot, unpiloted research vehicle was developed and built by MicroCraft Inc., Tullahoma, Tenn., under NASA contract. The booster was built by Orbital Sciences Corp., Dulles, Va.,After being air-launched from NASA's venerable NB-52 mothership, the booster will accelerate the X-43A to test speed and altitude. The X-43A will then separate from the rocket and fly a pre-programmed trajectory, conducting aerodynamic and propulsion experiments until it descends into the Pacific Ocean. Three research flights are planned, two at Mach 7 and one at Mach 10.

The second of three X-43A hypersonic research aircraft, shown here in its protective shipping jig, arrived at NASA's Dryden Flight Research Center, Edwards, California, on January 31, 2001. The arrival of the second X-43A from its manufacturer, MicroCraft, Inc., of Tullahoma, Tenn., followed by only a few days the mating of the first X-43A and its specially-designed adapter to the first stage of a modified Pegasus® booster rocket. The booster, built by Orbital Sciences Corp., Dulles, Va., will accelerate the 12-foot-long, unpiloted research aircraft to a predetermined altitude and speed after the X-43A/booster "stack" is air-launched from NASA's venerable NB-52 mothership. The X-43A will then separate from the rocket and fly a pre-programmed trajectory, conducting aerodynamic and propulsion experiments until it impacts into the Pacific Ocean. Three research flights are planned, two at Mach 7 and one at Mach 10 (seven and 10 times the speed of sound respectively) with the first tentatively scheduled for early summer, 2001. The X-43A is powered by a revolutionary supersonic-combustion ramjet ("scramjet") engine, and will use the underbody of the aircraft to form critical elements of the engine. The forebody shape helps compress the intake airflow, while the aft section acts as a nozzle to direct thrust. The X-43A flights will be the first actual flight tests of an aircraft powered by an air-breathing scramjet engine.

The second X-43A hypersonic research aircraft and its modified Pegasus booster rocket left the runway, carried aloft by NASA's B-52B launch aircraft from the NASA Dryden Flight Research Center at Edwards Air Force Base, Calif., on March 27, 2004. About an hour later the Pegasus booster was launched from the B-52 to accelerate the X-43A to its intended speed of Mach 7.

The second X-43A hypersonic research aircraft and its modified Pegasus booster rocket left the runway, carried aloft by NASA's B-52B launch aircraft from the NASA Dryden Flight Research Center at Edwards Air Force Base, Calif., on March 27, 2004. About an hour later the Pegasus booster was launched from the B-52 to accelerate the X-43A to its intended speed of Mach 7.

The second X-43A hypersonic research aircraft and its modified Pegasus booster rocket left the runway, carried aloft by NASA's B-52B launch aircraft from the NASA Dryden Flight Research Center at Edwards Air Force Base, Calif., on March 27, 2004. About an hour later the Pegasus booster was launched from the B-52 to accelerate the X-43A to its intended speed of Mach 7.

The third X-43A hypersonic research aircraft and its modified Pegasus booster rocket left the runway, carried aloft by NASA's B-52B launch aircraft from the NASA Dryden Flight Research Center at Edwards Air Force Base, California, on November 16, 2004. About an hour later the Pegasus booster was launched from the B-52 to accelerate the X-43A to its intended speed of Mach 10.

The second X-43A hypersonic research aircraft and its modified Pegasus booster rocket left the runway, carried aloft by NASA's B-52B launch aircraft from the NASA Dryden Flight Research Center at Edwards Air Force Base, Calif., on March 27, 2004. About an hour later the Pegasus booster was launched from the B-52 to accelerate the X-43A to its intended speed of Mach 7.

Allen Parker, Mark Hagiwara, Paul Bean, Patrick Chan, Jonathan Lopez (seated), and Frank Pena comprise the Fiber Optic Sensing System team at NASA’s Armstrong Flight Research Center, in Edwards, California. The systems on the table measure strain and temperature, critical safety data for hypersonic vehicles that travel five time the speed of sound.

The first of three X-43A hypersonic research aircraft and its modified Pegasus® booster rocket recently underwent combined systems testing while mounted to NASA's NB-52B carrier aircraft at the Dryden Flight Research Center, Edwards, California. The combined systems test was one of the last major milestones in the Hyper-X research program before the first X-43A flight. One of the major goals of the Hyper-X program is flight validation of airframe-integrated, air-breathing propulsion system, which so far have only been tested in ground facilities, such as wind tunnels. The X-43A flights will be the first actual flight tests of an aircraft powered by a revolutionary supersonic-combustion ramjet ("scramjet") engine capable of operating at hypersonic speeds above Mach 5 (five times the speed of sound). The X-43A design uses the underbody of the aircraft to form critical elements of the engine. The forebody shape helps compress the intake airflow, while the aft section acts as a nozzle to direct thrust. The 12-foot, unpiloted research vehicle was developed and built by MicroCraft Inc., Tullahoma, Tenn., under NASA contract. The booster, built by Orbital Sciences Corp., Dulles, Va., will accelerate the X-43A after the X-43A/booster "stack" is air-launched from NASA's venerable NB-52 mothership. The X-43A will separate from the rocket at a predetermined altitude and speed and fly a pre-programmed trajectory, conducting aerodynamic and propulsion experiments until it descends into the Pacific Ocean. Three research flights are planned, two at Mach 7 and one at Mach 10.

Thomas N. Canning, Hypersonic Free-Flight Branch Chief, holds model that is fired down range in gun. Hypersonic Free-Flight Gun.

Thomas N. Canning, Hypersonic Free-Flight Branch Chief, inspects breech of the counter flow section of gun. Hypersonic Free-Flight Gun.

The Pegasus air-launched space booster is carried aloft under the right wing of NASA's B-52 carrier aircraft on its first captive flight from the Dryden Flight Research Center, Edwards, California. The first of two scheduled captive flights was completed on November 9, 1989. Pegasus is used to launch satellites into low-earth orbits cheaply. In 1997, a Pegasus rocket booster was also modified to test a hypersonic experiment (PHYSX). An experimental "glove," installed on a section of its wing, housed hundreds of temperature and pressure sensors that sent hypersonic flight data to ground tracking facilities during the experiment’s flight.

Hypersonic Tunnel Facility

All-Body Hypersonic Vehicle: Experimental Shadowgraph

NASA astronaut Christina Koch exits the vacuum test chamber for the Interaction Heating Facility (IHF) of the Ames Arc Jet Complex, N238, following Victor J. Glover, left. During a test, a TPS test sample is suspended in the hypersonic flow produced by IHF’s arc heater. The shock heating produced by the interaction between the hypersonic flow and the stationary test sample simulates the heating and other forces the spacecraft will encounter during atmospheric hypersonic entry.

Technicians prepare a Pegasus rocket booster for flight tests with the X-43A "Hypersonic Experimental Vehicle," or "Hyper-X." The X-43A, which will be attached to the Pegasus booster and drop launched from NASA's B-52 mothership, was developed to research dual-mode ramjet/scramjet propulsion system at speeds from Mach 7 up to Mach 10 (7 to 10 times the speed of sound, which varies with temperature and altitude).

The second X-43A hypersonic research aircraft and its modified Pegasus booster rocket accelerate after launch from NASA's B-52B launch aircraft over the Pacific Ocean on March 27, 2004. The mission originated from the NASA Dryden Flight Research Center at Edwards Air Force Base, Calif. Minutes later the X-43A separated from the Pegasus booster and accelerated to its intended speed of Mach 7.

The third X-43A hypersonic research aircraft and its modified Pegasus booster rocket drop away from NASA's B-52B launch aircraft over the Pacific Ocean on November 16, 2004. The mission originated from the NASA Dryden Flight Research Center at Edwards Air Force Base, California. Moments later the Pegasus booster ignited to accelerate the X-43A to its intended speed of Mach 10.

A close-up view of the front end of a Pegasus rocket booster being prepared by technicians at the Dryden Flight Research Center for flight tests with the X-43A "Hypersonic Experimental Vehicle," or "Hyper-X." The X-43A, which will be attached to the Pegasus booster and drop launched from NASA's B-52 mothership, was developed to research dual-mode ramjet/scramjet propulsion system at speeds from Mach 7 up to Mach 10 (7 to 10 times the speed of sound, which varies with temperature and altitude).

The third X-43A hypersonic research aircraft and its modified Pegasus booster rocket accelerate after launch from NASA's B-52B launch aircraft over the Pacific Ocean on November 16, 2004. The mission originated from the NASA Dryden Flight Research Center at Edwards Air Force Base, California. Minutes later the X-43A separated from the Pegasus booster and accelerated to its intended speed of Mach 10.

The third X-43A hypersonic research aircraft, attached to a modified Pegasus booster rocket, was taken to launch altitude by NASA's B-52B launch aircraft from the NASA Dryden Flight Research Center at Edwards Air Force Base, California, on November 16, 2004. About an hour later the Pegasus booster was released from the B-52 to accelerate the X-43A to its intended speed of Mach 10.

The second X-43A hypersonic research aircraft and its modified Pegasus booster rocket drop away from NASA's B-52B launch aircraft over the Pacific Ocean on March 27, 2004. The mission originated from the NASA Dryden Flight Research Center at Edwards Air Force Base, Calif. Moments later the Pegasus booster ignited to accelerate the X-43A to its intended speed of Mach 7.

Ames Hypersonic Free Flight Aerodynamic Facility is used for research on gas dynamic problems of atmospheric entry. High relative speeds are achieved by launching models (in sabots if necessary) from high-speed guns into a countercurrent hypersonic air stream (14,000 ft/sec) driven by combustion-powered shock tube.

GARRETT ENGINE IN HYPERSONIC TUNNEL FACILITY HTF AT NASA PLUM BROOK STATION

HYPERSONIC TUNNEL FACILITY HTF AT NASA PLUM BROOK STATION

Artwork Artist conception of a hypersonic futuristic space vehicle re-entry

M-1 model of reentry body in 3.5ft Hypersonic Wind Tunnel throat

Brimmer All Body Hypersonic Aircraft Model 3.5ft W.T. Test-260 Flow Visualization

Space Shuttle Orbitor model 140 A/B-OA87 testing in the 3.5ft Hypersonic Wind Tunnel

Space Shuttle Orbitor model 140 A/B-OA87 testing in the 3.5ft Hypersonic Wind Tunnel

Engineers and technicians in the control room at the Dryden Flight Research Center must constantly monitor critical operations and checks during research projects like NASA's hypersonic X-43A. Visible in the photo, taken two days before the X-43's captive carry flight in January 2004, are [foreground to background]; Tony Kawano (Range Safety Officer), Brad Neal (Mission Controller), and Griffin Corpening (Test Conductor).

Overview of the light gas gun in the Ames Hypersonic Free Flgiht Aerodynamic Facility (HFFAF) with Don Bowling (l), Don Holt (r) and Rick Smythe (bkgrd).

A chambered and twisted wing-body. Arrow wing hypersonic model tested in the 6x6 foot wind tunnel at the NASA Ames Research Center.

Artist: W.S. Phillips Aeronautics Art: X-15 Hypersonic Final (HQ ref: 84-HC-281 & 84-H-285)

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

Sim Ops 2002 R&D report images; SHARP (Slender Hypersonic Aerodynamic Research Probe) CTV Crew Transfer Vehicle) CGI image created by V Hawke & C Tang (Eloret Corp)

Test 1875 in Unitary Plan Wind Tunnel (UPWT) HIADS TTPM: Trim Tab study on various cone angled heat shields (TTPM) Technology Technical Performance Metric (HIADS) Hypersonic inflatable aerodynamic decelerators

Test 1875 in Unitary Plan Wind Tunnel (UPWT) HIADS TTPM: Trim Tab study on various cone angled heat shields (TTPM) Technology Technical Performance Metric (HIADS) Hypersonic inflatable aerodynamic decelerators

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

NASA's Langley Research Center in Hampton, Va., recently conducted hypersonic testing of Dream Chaser models for SNC as part of the agency's Commercial Crew Program in order to obtain necessary data for the material selection and design of the TPS

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

NASA's Langley Research Center in Hampton, Va., recently conducted hypersonic testing of Dream Chaser models for SNC as part of the agency's Commercial Crew Program in order to obtain necessary data for the material selection and design of the TPS

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

Test 1875 in Unitary Plan Wind Tunnel (UPWT) HIADS TTPM: Trim Tab study on various cone angled heat shields (TTPM) Technology Technical Performance Metric (HIADS) Hypersonic inflatable aerodynamic decelerators

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.

The inaugural Glenn Symposium focused on advancements in aerospace technology including power and propulsion, autonomy and communications, low boom supersonics, hypersonics, and more. Discussion also encompassed humans returning to the moon, including challenges associated with the 2024 mission.