A NASA King Air successfully tested the Advanced Data Acquisition and Telemetry System during a recent series of three research flights.

NASA Administrator Bridenstine learns about the many uses for mission control rooms for flight research projects such as monitoring the flights for safety, gathering data and talking to the pilot and project researcher.

This photo of the X-1A includes graphs of the flight data from Maj. Charles E. Yeager's Mach 2.44 flight on December 12, 1953. (This was only a few days short of the 50th anniversary of the Wright brothers' first powered flight.) After reaching Mach 2.44, then the highest speed ever reached by a piloted aircraft, the X-1A tumbled completely out of control. The motions were so violent that Yeager cracked the plastic canopy with his helmet. He finally recovered from a inverted spin and landed on Rogers Dry Lakebed. Among the data shown are Mach number and altitude (the two top graphs). The speed and altitude changes due to the tumble are visible as jagged lines. The third graph from the bottom shows the G-forces on the airplane. During the tumble, these twice reached 8 Gs or 8 times the normal pull of gravity at sea level. (At these G forces, a 200-pound human would, in effect, weigh 1,600 pounds if a scale were placed under him in the direction of the force vector.) Producing these graphs was a slow, difficult process. The raw data from on-board instrumentation recorded on oscillograph film. Human computers then reduced the data and recorded it on data sheets, correcting for such factors as temperature and instrument errors. They used adding machines or slide rules for their calculations, pocket calculators being 20 years in the future.

View of Expedition 53 crewmember's Personal Flight Data Filer (FDF) item- US Flag- Floating. Image was released by astronaut on social media.

This video animation made with data from the first flight of NASA's Ingenuity helicopter shows the flight from different angles. The flight occurred on April 19, 2021. The Ingenuity Mars Helicopter was built by JPL, which also manages this technology demonstration project for NASA Headquarters. It is supported by NASA's Science Mission Directorate, Aeronautics Research Mission Directorate, and Space Technology Mission Directorate. NASA's Ames Research Center and Langley Research Center provided significant flight performance analysis and technical assistance during Ingenuity's development. A key objective for Perseverance's mission on Mars is astrobiology, including the search for signs of ancient microbial life. The rover will characterize the planet's geology and past climate, pave the way for human exploration of the Red Planet, and be the first mission to collect and cache Martian rock and regolith (broken rock and dust). Subsequent NASA missions, in cooperation with ESA (European Space Agency), would send spacecraft to Mars to collect these sealed samples from the surface and return them to Earth for in-depth analysis. The Mars 2020 Perseverance mission is part of NASA's Moon to Mars exploration approach, which includes Artemis missions to the Moon that will help prepare for human exploration of the Red Planet. Animation available at https://photojournal.jpl.nasa.gov/catalog/PIA24588

Members of NASA's Ingenuity helicopter team in the Space Flight Operations Facility at NASA's Jet Propulsion Laboratory prepare to receive the data downlink showing whether the helicopter completed its first flight on April 19, 2021. The Ingenuity Mars Helicopter was built by JPL, which also manages this technology demonstration project for NASA Headquarters. It is supported by NASA's Science Mission Directorate, Aeronautics Research Mission Directorate, and Space Technology Mission Directorate. NASA's Ames Research Center and Langley Research Center provided significant flight performance analysis and technical assistance during Ingenuity's development. A key objective for Perseverance's mission on Mars is astrobiology, including the search for signs of ancient microbial life. The rover will characterize the planet's geology and past climate, pave the way for human exploration of the Red Planet, and be the first mission to collect and cache Martian rock and regolith (broken rock and dust). Subsequent NASA missions, in cooperation with ESA (European Space Agency), would send spacecraft to Mars to collect these sealed samples from the surface and return them to Earth for in-depth analysis. The Mars 2020 Perseverance mission is part of NASA's Moon to Mars exploration approach, which includes Artemis missions to the Moon that will help prepare for human exploration of the Red Planet. https://photojournal.jpl.nasa.gov/catalog/PIA24585

From left, Wayne Arrington, a Boeing Company technician, and Steve Presti, a mechanical technician at NASA's Marshall Space Flight Center in Huntsville, Ala., install Developmental Flight Instrumentation Data Acquisition Units in Marshall's Systems Integration and Test Facility. The units are part of NASA's Space Launch System (SLS) core stage avionics, which will guide the biggest, most powerful rocket in history to deep space missions. When completed, the core stage will be more than 200 feet tall and store cryogenic liquid hydrogen and liquid oxygen that will feed the vehicle's RS-25 engines. The hardware, software and operating systems for the SLS are arranged in flight configuration in the facility for testing. The new Data Acquisition Units will monitor vehicle behavior in flight -- like acceleration, thermal environments, shock and vibration. That data will then be used to validate previous ground tests and analyses models that were used in the development of the SLS vehicle.

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Members of the Ascent Abort-2 (AA-2) Flight Test team perform a drop test of data recording devices about 10 miles off the coast of NASA’s Kennedy Space Center in Florida on Wednesday, Aug. 8, 2018. These devices, called Ejectable Data Recorders (EDRs), were tossed out of a helicopter hovering 5,000 feet over the Atlantic Ocean and retrieved by recovery boats. The AA-2 Flight Test team is evaluating how the systems in the devices react to elements encountered from the sky to the ocean. In April 2019, the EDRs will eject from the Orion test article during a scheduled test of the spacecraft’s Launch Abort System (LAS).

Cal Poly San Luis Obispo Professor Russ Westphal works on the Boundary Layer Data System (BLDS) attached to the wing of a Beechcraft Beech 200 Super King Air aircraft. The BLDS was attached to the aircraft with removable adhesives for a flight test at NASA’s Armstrong Flight Research Center.

Members of NASA's Ingenuity helicopter team in the Space Flight Operations Facility at NASA's Jet Propulsion Laboratory react to data showing that the helicopter completed its first flight on April 19, 2021. The Ingenuity Mars Helicopter was built by JPL, which also manages this technology demonstration project for NASA Headquarters. It is supported by NASA's Science Mission Directorate, Aeronautics Research Mission Directorate, and Space Technology Mission Directorate. NASA's Ames Research Center and Langley Research Center provided significant flight performance analysis and technical assistance during Ingenuity's development. A key objective for Perseverance's mission on Mars is astrobiology, including the search for signs of ancient microbial life. The rover will characterize the planet's geology and past climate, pave the way for human exploration of the Red Planet, and be the first mission to collect and cache Martian rock and regolith (broken rock and dust). Subsequent NASA missions, in cooperation with ESA (European Space Agency), would send spacecraft to Mars to collect these sealed samples from the surface and return them to Earth for in-depth analysis. The Mars 2020 Perseverance mission is part of NASA's Moon to Mars exploration approach, which includes Artemis missions to the Moon that will help prepare for human exploration of the Red Planet. https://photojournal.jpl.nasa.gov/catalog/PIA24499

Cal Poly San Luis Obispo professors Russ Westphal, left, and Aaron Drake posed next to NASA Armstrong Flight Research Center’s Beechcraft Beech 200 Super King Air aircraft. On the King Air’s wing is the Boundary Layer Data System (BLDS), a sensor developed by Cal Poly and Northrop Grumman. BLDS was flown at NASA Armstrong as a step towards creating a process allowing universities, small businesses and other interested parties to quickly test flight technologies.

The communication antenna is used primarily for test flights to receive downlink flight data and video from test aircraft and also to support command uplink of data to test aircraft for command and control. It is one of two such assets of the Dryden Aeronautical Test Range at NASA’s Armstrong Flight Research Center in California.

The communication antenna is used primarily for test flights to receive downlink flight data and video from test aircraft and also to support command uplink of data to test aircraft for command and control. It is one of two such assets of the Dryden Aeronautical Test Range at NASA’s Armstrong Flight Research Center in California.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA’s F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

While NASA's F/A-18 goes supersonic off the coast, a team of researchers monitor the flight and operate multiple sound monitor stations around Galveston and its surrounding area. This allows NASA to obtain accurate sound level data, which gets matched to community response data.

AeroVironment engineers and technicians closely monitor flight data in the ground control station during the Pathfinder-Plus' turbulence measurement flights.

Members of NASA's Ingenuity Mars Helicopter team at the agency's Jet Propulsion Laboratory react to data showing that the helicopter completed its second flight on the Red Planet on April 22, 2021. The Ingenuity Mars Helicopter was built by JPL, which also manages this technology demonstration project for NASA Headquarters. It is supported by NASA's Science Mission Directorate, Aeronautics Research Mission Directorate, and Space Technology Mission Directorate. NASA's Ames Research Center and Langley Research Center provided significant flight performance analysis and technical assistance during Ingenuity's development. A key objective for Perseverance's mission on Mars is astrobiology, including the search for signs of ancient microbial life. The rover will characterize the planet's geology and past climate, pave the way for human exploration of the Red Planet, and be the first mission to collect and cache Martian rock and regolith (broken rock and dust). Subsequent NASA missions, in cooperation with ESA (European Space Agency), would send spacecraft to Mars to collect these sealed samples from the surface and return them to Earth for in-depth analysis. The Mars 2020 Perseverance mission is part of NASA's Moon to Mars exploration approach, which includes Artemis missions to the Moon that will help prepare for human exploration of the Red Planet. https://photojournal.jpl.nasa.gov/catalog/PIA24597

Cal Poly San Luis Obispo Professor Russ Westphal, left, and NASA Armstrong’s Technology Transfer Officer Benjamin Tomlinson remove the Boundary Layer Data System (BLDS) sensor attached to the wing of a Beechcraft Beech 200 Super King Air. The BLDS was flight tested at NASA’s Armstrong Flight Research Center to showcase rapid and flexible flight-testing capabilities.

STS059-09-012 (9-20 April 1994) --- On the Space Shuttle Endeavour's aft flight deck, astronaut Michael R. (Rich) Clifford, mission specialist, inserts a tape in the payload high rate recorder. Three of these state-of-the-art recorders captured four times the amount of data that could be radioed to the ground. The 183 tapes, each containing 40 megabytes of data, will be turned into images over the next year, and analyzed over the next decade. Clifford was joined in space by five other NASA astronauts for a week and a half of support to the Space Radar Laboratory (SRL-1)/STS-59 mission.

Kevin Knutson sits at a station in the main Blue Control Room at NASA’s Armstrong Flight Research Center in California used during complex flight missions to house the many technical discipline experts required to gather all of the required data and to enhance mission safety.

NASA engineers put the X-57 Maxwell, NASA’s first all-electric X-plane, through its initial telemetry tests at NASA’s Armstrong Flight Research Center in California, testing the aircraft’s ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it’s decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

NASA engineers put the X-57 Maxwell, NASA’s first all-electric X-plane, through its initial telemetry tests at NASA’s Armstrong Flight Research Center in California, testing the aircraft’s ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it’s decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

NASA engineers put the X-57 Maxwell, NASA's first all-electric X-plane, through its initial telemetry tests at NASA's Armstrong Flight Research Center in California, testing the aircraft's ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it's decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57's goal is to help set certification standards for emerging electric aircraft markets.

NASA engineers put the X-57 Maxwell, NASA's first all-electric X-plane, through its initial telemetry tests at NASA's Armstrong Flight Research Center in California, testing the aircraft's ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it's decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57's goal is to help set certification standards for emerging electric aircraft markets.

NASA engineers put the X-57 Maxwell, NASA’s first all-electric X-plane, through its initial telemetry tests at NASA’s Armstrong Flight Research Center in California, testing the aircraft’s ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it’s decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

NASA engineers put the X-57 Maxwell, NASA's first all-electric X-plane, through its initial telemetry tests at NASA's Armstrong Flight Research Center in California, testing the aircraft's ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it's decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57's goal is to help set certification standards for emerging electric aircraft markets.

NASA engineers put the X-57 Maxwell, NASA’s first all-electric X-plane, through its initial telemetry tests at NASA’s Armstrong Flight Research Center in California, testing the aircraft’s ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it’s decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

NASA engineers put the X-57 Maxwell, NASA's first all-electric X-plane, through its initial telemetry tests at NASA's Armstrong Flight Research Center in California, testing the aircraft's ability to transmit data to teams on the ground. The data is packaged and transmitted down to ground assets, where it's decoded into a format that can be presented to a flight control team to look at screens in real time for flight operations. X-57's goal is to help set certification standards for emerging electric aircraft markets.

ISS037-E-004972 (27 Sept. 2013) --- Seen floating on the Cupola of the Earth-orbiting International Space Station, this quilt block, paying tribute to the state of Texas or the Lone Star state, was fashioned from T-shirts onboard the orbital outpost by Expedition 37 Flight Engineer Karen Nyberg. The NASA astronaut has spent much of her off-duty time on the station sewing and fashioning various items, using only a handful of tools she took aboard and whatever materials that have been available.

Engineers and technicians pore over data during moment-of-inertia testing on the Orion PA-1 Abort Flight Test module in the NASA Dryden Flight Loads Laboratory.

View of an Expedition 40 crewmember shirt with stars over a patch that reads Deutscher Fussbal-Bund.

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.

Test flights of the Prandtl-M have resumed. The airframe also is the basis for another aircraft that will collect weather data.

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.

KENNEDY SPACE CENTER, FLA. - Like candles embedded in a sculptured “cake,” the Mobile Launcher Platform (MLP) number 3 with twin solid rocket boosters bolted to it inches along the crawlerway at various speeds up to 1 mph in an effort to achieve vibration data gathering goals. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

The X-57 operations crew at NASA's Armstrong Flight Research Center prepare for telemetry testing on NASA's first all-electric X-plane, the X-57 Maxwell. Shown here in its first all-electric configuration, known as Mod II, X-57's series of functional tests helps engineers confirm that the vehicle will be ready for taxi and flight tests, and the telemetry testing confirms the ability of the aircraft to transmit location and test data to the ground. X-57 will help set certification standards for emerging electric aircraft markets.

The X-57 operations crew at NASA's Armstrong Flight Research Center prepare for telemetry testing on NASA's first all-electric X-plane, the X-57 Maxwell. Shown here in its first all-electric configuration, known as Mod II, X-57's series of functional tests helps engineers confirm that the vehicle will be ready for taxi and flight tests, and the telemetry testing confirms the ability of the aircraft to transmit location and test data to the ground. X-57 will help set certification standards for emerging electric aircraft markets.

NASA pilot Kurt Blankenship maps out flight plans during a pre-flight brief. Pilots, crew, and researchers from NASA’s Armstrong Flight Research Center in Edwards, California and NASA’s Glenn Research Center in Cleveland are briefed on the flight plan to gather Automatic Dependent Surveillance-Broadcast signal data between the aircraft and ping-Stations on the ground at NASA Armstrong. These flights are the first cross-center research activity with the Pilatus-PC-12 at NASA Armstrong.

Telemetry testing begins on the X-57 Maxwell, NASA’s first all-electric X-plane, as the operations crew at NASA’s Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57’s functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA's first all-electric X-plane, as the operations crew at NASA's Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57's functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57's goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA’s first all-electric X-plane, as the operations crew at NASA’s Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57’s functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA's first all-electric X-plane, as the operations crew at NASA's Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57's functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57's goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA's first all-electric X-plane, as the operations crew at NASA's Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57's functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57's goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA's first all-electric X-plane, as the operations crew at NASA's Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57's functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57's goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA's first all-electric X-plane, as the operations crew at NASAâ' Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57's functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57's goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA’s first all-electric X-plane, as the operations crew at NASA’s Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57’s functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA's first all-electric X-plane, as the operations crew at NASA's Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57's functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57's goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA’s first all-electric X-plane, as the operations crew at NASA’s Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57’s functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA’s first all-electric X-plane, as the operations crew at NASA’s Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57’s functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA’s first all-electric X-plane, as the operations crew at NASA’s Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57’s functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

Telemetry testing begins on the X-57 Maxwell, NASA’s first all-electric X-plane, as the operations crew at NASA’s Armstrong Flight Research Center records the results. Telemetry testing is a critical phase in X-57’s functional test series. In addition to confirming the ability of the X-57 aircraft to transmit speed, altitude, direction, and location to teams on the ground, telemetry testing also confirms the ability to transmit mission-critical-data, such as voltage, power consumption, and structural integrity. X-57’s goal is to help set certification standards for emerging electric aircraft markets.

STS109-406-026 (1-12 March 2002) --- Astronaut James H. Newman, STS-109 mission specialist, works with Payload and General Support Computers (PGSC) on the mid deck of the Space Shuttle Columbia.

Johanna Lucht, observing data from the Mission Control Center at NASA’s Armstrong Flight Research Center in California, received flight communications from an interpreter, seen on Lucht’s monitor, through American Sign Language. Two-way visual communication was established between Lucht and the interpreter, located at NASA’s Langley Research Center in Virginia, for the flight. Interpreting technical terminology often requires cooperation to develop specific signs to ease communication. Using a familiar interpreter who is adept or practiced in the technical terminology of a NASA flight was beneficial, Lucht says.

KENNEDY SPACE CENTER, FLA. - As the crawler transporter slowly moves the Mobile Launcher Platform (MLP) out of the Vehicle Assembly Building, the two solid rocket boosters on top are framed in the doorway. The move is in support of engineering analysis vibration tests on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - The crawler transporter has slowly moved the Mobile Launcher Platform (MLP), carrying a set of twin solid rocket boosters, out of the Vehicle Assembly Building (VAB) in support of engineering analysis vibration tests on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - The crawler transporter slowly moves the Mobile Launcher Platform (MLP), carrying a set of twin solid rocket boosters, out of the Vehicle Assembly Building (VAB) in support of engineering analysis vibration tests on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - As the crawler transporter slowly moves the Mobile Launcher Platform (MLP) out of the Vehicle Assembly Building, the two solid rocket boosters on top are framed in the doorway. The move is in support of engineering analysis vibration tests on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - Mobile Launcher Platform (MLP) number 3 and a set of twin solid rocket boosters, atop the crawler-transporter, inch along the crawlerway in support of the second engineering analysis vibration test on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB, travels toward Launch Pad 39A (framed between the boosters), and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - Mobile Launcher Platform (MLP) number 3 and a set of twin solid rocket boosters, atop the crawler-transporter, crawls away from the Vehicle Assembly Building in support of the second engineering analysis vibration test on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB, travels toward Launch Pad 39A and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - Framed between palm trees, solid rocket boosters loom above the Mobile Launcher Platform (MLP) as the crawler transporter slowly moves it along the crawlerway. The journey is in support of engineering analysis vibration tests on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - Carrying a set of twin solid rocket boosters, the crawler transporter slowly moves the Mobile Launcher Platform (MLP) past the NASA-KSC News Center where the U.S. flag flies daily. The journey is in support of engineering analysis vibration tests on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.

KENNEDY SPACE CENTER, FLA. - As the crawler transporter slowly moves the Mobile Launcher Platform (MLP) out of the Vehicle Assembly Building, the driver of the front control cab can be seen. The MLP is carrying two solid rocket boosters for engineering analysis vibration tests on the crawler and MLP. The crawler is moving at various speeds up to 1 mph in an effort to achieve vibration data gathering goals as it leaves the VAB and then returns. The boosters are braced at the top for stability. The primary purpose of these rollout tests is to gather data to develop future maintenance requirements on the transport equipment and the flight hardware. Various parts of the MLP and crawler transporter have been instrumented with vibration data collection equipment.