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Armstrong Flight Research Center Flight Test Capabilities and Opportunities for the Applications of Wireless Data Acquisition Systems

20150008345 · NASA · 2015

Public domain · NASATechnical Reports

Overview

The presentation will overview NASA Armstrong Flight Research Centers flight test capabilities, which can provide various means for flight testing of passive and active wireless sensor systems, also, it will address the needs of the wireless data acquisition solutions for the centers flight…

Publisher
NASA
Document
20150008345
Year
2015
Pages
17

Key points

  • The Armstrong Flight Research Center (AFRC) has over 40 years of experience in flight research and technology integration.
  • AFRC operates a variety of experimental and testbed aircraft, including unmanned aircraft systems and airborne science platforms.
  • The center is exploring wireless data acquisition systems to enhance flight testing capabilities and reduce the need for extensive wiring modifications.
  • AFRC's capabilities include real-time data monitoring, telemetry, and advanced structural evaluation techniques.
  • Current projects at AFRC involve research on low boom supersonic aircraft and the integration of wireless sensor technologies.
Frequently asked questions
What is the primary mission of the Armstrong Flight Research Center?

The primary mission of AFRC is to perform flight research and technology integration to revolutionize aviation and pioneer aerospace technology.

What types of aircraft does AFRC utilize for its research?

AFRC utilizes a range of experimental/testbed aircraft, including unmanned aircraft systems like the Ikhana MQ-9 Predator B and piloted aircraft such as the F-15 and F/A-18.

What are the benefits of using wireless data acquisition systems?

Wireless data acquisition systems reduce costs, integration schedules, and aircraft weight, allowing for quick addition of sensors without extensive wiring modifications.

What capabilities does AFRC offer for flight testing?

AFRC offers capabilities such as real-time data monitoring, telemetry, structural evaluation, and advanced instrumentation for both ground and flight tests.

What current research projects are being conducted at AFRC?

Current research projects at AFRC include studies on low boom supersonic aircraft and the development of wireless sensor technologies for flight testing.

Document

5/5/2015, Arlington, Virginia Presenter: Richard Hang

PWST Workshop 2015

Armstrong Flight Research Center

Flight Test Capabilities and Opportunities for the

Applications of Wireless Data Acquisition Systems

National Aeronautics and Space Administration Neil A. Armstrong Flight Research Center (SOFIA) Stratospheric Observatory for Infrared Astronomy Ikhana MQ-9 Predator B Unmanned Aircraft System X-56 Multi-Utility Technology Testbed Perform flight research and technology integration to revolutionize aviation and pioneer aerospace technology Validate space exploration concepts Conduct airborne remote sensing and science observations

1 2 3

Advancing technology and science through flight

Armstrong Mission

Armstrong Flight Research Center X-43 X-15 F-8 X-29 Lunar Landing Research Vehicle Helios M2-F1 Space Shuttle Approach and Landing Tests

To separate the real from the imagined through flight

Armstrong Vision

Armstrong Flight Research Center 40 years experience – Certificates of Authorization (COA) Ground control stations Full range of UAS sizes and capabilities Western Aeronautical Test Range Research Aircraft Integration Facility Flight Loads Laboratory Building 703 Experimental/testbed aircraft Unmanned aircraft systems › › › Airborne science platforms Range and aircraft test facilities › › › ›

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Facility Capability

Back shops Flight safety and risk management Flight project and mission management Flight research technology Flight test operations Experimental aircraft (piloted and unmanned)

Flight operations and engineering staff › Atmospheric flight research and test › › › › ›

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Core Competencies

Armstrong Capabilities

Armstrong Flight Research Center Mach 2.3 - F-15 F Mach 2.0 2.0 Mach 1.5 F/A-18 Mach Number 1.0 G-II B200 B200 T-34 TG-14 50K Altitude

NASA AFRC Flight Research Envelope Support Aircraft and Test Range Requirements

Armstrong Flight Research Center Ikhana Predator B G-III F/A-18 Hornet Gulfstream F-15 Eagle RQ-4 Global Hawk ER-2 Dragon Lady B200 King Air T-34 Mentor

Testbed Aircraft

Armstrong Flight Research Center Ground voice communication Real-time data monitoring and processing Data distribution Data archive Range safety (FTS, EFTS, RSO station)

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Telemetry/uplink (fixed and mobile) Time-space-position information (radar, differential GPS) Video monitoring and recording Radio frequency (RF) communication

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Dryden Aeronautical Test Range Capabilities

Armstrong Flight Research Center Photogrammetry for full-field strain and spatial deformation Transient infrared pulsed thermography for non-destructive evaluation Acoustic emission sensing for damage detection Approximately 2,000 channels of data acquisition Stiffness Characterization and Load Calibration

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Structural evaluation Data acquisition

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Load frames, hydraulic actuators, and load cells 84 channels of hydraulic load control Ground vibration and structural mode interaction testing Quartz lamp and graphite element heating 264 channels of thermal control Low- and high-temperature chambers Liquid and gaseous nitrogen supply systems Conventional and fiber optic instrumentation

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Structural loading Thermal loading Instrumentation

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Fight Load Lab Capabilities

Armstrong Flight Research Center Low boom supersonic aircraft Aerodynamic (PRANDTL-D) Preliminary Research Design to Lower Drag Flight research on the F-15 and F-18 aircrafts to understand sonic booms and how to over-land supersonic flight possible Testbed Technology X-56A Multi-Utility A U.S. Air Force C-17 is used for Vehicle Integrated Propulsion Research (VIPR) testing.

ƒ X-48C Blended Wing Body Towed Glider Air-Launch System Quad rotor flying with Expandable Variable- Autonomy Architecture Gulfstream III ACTE research Armstrong Flight Research Center

Some Current, Recent & Future Projects at AFRC

Data Acquisition Development Custom Circuit Board Design Sensor selection, installation and calibration Fiber Optic Sensing System (FOSS) Power Distribution Systems Design Real-time embedded data processing systems Satellite Communication Applications Data Telemetry (PCM, IP-over-TM) Design Instrumentation Systems for Ground & Flight tests: › › › › › › › › Support Instrumentation-Related Activities On All Flight Platforms Support Flight Test Operations Process flight data using a variety of tools

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Flight Instrumentation Capabilities

Armstrong Flight Research Center Additional weight (wires, connectors brackets, mounting plates…) Must penetrate aircraft structure for wire routing Requires longer aircraft down time Requires extensive aircraft wiring labor Requires extensive, costly engineering Not convenient for quick add-ons

• • • • • •

Issues with Conventional Instrumentation

Armstrong Flight Research Center Benefits: reduced cost, integration schedule, aircraft weight and engineering time Allows quick addition of sensors without extensive wiring modifications Avoids additional penetrations of aircraft structure (bulkhead, firewall, etc.) Can be used for moving parts (engines blades, landing gears, etc..) Allows remote sensing/measurement in inaccessible or dangerous places Pressure Temperature Strain Fuel flow Acceleration (low and high frequency) Acoustic Video camera Torque Position Others? High altitude (50k feet) Extreme temperature condition (-60 to 160 disagree F, operational) High g vibration (depending on where the sensor is used it can be up to 22 g rms) NASA AFRC is studying wireless sensors/systems › › › › › Wireless sensors/systems needed: › › › › › › › › › › Environment Constraints/Requirements › › ›

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Wireless Solutions

Armstrong Flight Research Center

from this Workshop

gain

encryption protocols – Sensor power/excitation (batteries vs wireless powered) Meeting defined EMI/EMC standards Battery operation concerns Spectrum (L, C bands, ISM band) Data security Data rate capabilities Number of channels per system Low power requirement Connection types (P2P or P2MP) Miniaturization (as small as possible) Multiplexing receivers with required outputs Other? What passive wireless sensors/systems are currently available that can be used for AFRC flight test applications? Learn more about wireless technologies to help my Branch’s research/development Learn about wireless data security protection methodologies Partnership with Wireless Community in flight testing of wireless data acquisition systems or sensors. An opportunity to make connection with Wireless Community for exchanging knowledge of wireless technologies and requirements

Other constraints/requirements › › › › › › › › › › › › Expectation to › › › › ›

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Wireless Solutions Cont’d

Armstrong Flight Research Center TM Antenna Transmitter

Vision 1

Using the existing conventional sensors Short wire runs from sensors to transmitters Sub-miniaturized multi-sensor transmitter Wireless multichannel receiver(s) with multiplexing & data fusion capabilities and formatted data stream outputs – PCM, IP packets… U S S W d o U S • • • • • • • • Multichannel receiver Subminiaturized transmitter package Multi-sensor interface and serialization for transmitting Number of channels and data rate Passing environmental requirements Challenges: • • • • types (CPT) Fuel Flow Accel sensors sensors Position sensors TC, RTD.. Pressure Other sensor Temp sensors

AFRC Vision of Active Wireless Systems for Flight Test

Armstrong Flight Research Center TM antenna Transmitter

Vision 2

Low power Powered by wireless • • Miniaturized sensor-transmitter packages Wireless multichannel receiver(s) with multiplexing & data fusion capabilities and formatted data outputs – PCM, IP Packets… M W da PC M W Multichannel Receiver • • • • Subminiaturized sensor/transmitter package Multi-sensor interfaces per package? Data rate Passing environmental requirements Challenges: • • • • s types Other sensor sensors RTD..

TC, RTD..

Temp sensors i sure sors cel PT) Fuel Flow (CPT) Accel Sensors sensors sensors Position Pressure T

AFRC Vision of Active Wireless Systems for Flight Test

Armstrong Flight Research Center TM antenna Transmitter a Using passive sensing tags with RFID Wireless multichannel receiver(s) with multiplexing & data fusion capabilities and formatted data outputs – PCM, IP Packets… Us W PC U W d P Multichannel Receiver • • • • Subminiaturized tags and acquisition systems Data rate Passing environmental requirements Challenges: • • • RFID th g Other Sensing Tags Tags Temp Sensing g Tags Tags Accel tags Fuel sensing Tags Flow Sensing Position Sensing Sensing Pressure

Passive Wireless Sensors for Flight Test

Armstrong Flight Research Center

wireless sensors might be used in flight testing at

wireless sensors on the market that are applicable to flight

passive

active

please educate me on what you have!

AFRC has a broad flight test capability that is suitable for flight testing of any wireless sensor suite I am here to learn how AFRC I want to learn about passive wireless sensor technologies under development or available I am looking for opportunity for partnerships in developing wireless sensor systems I am looking for other testing

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Summary: Armstrong Flight Research Center

Source & rights

Source: ntrs.nasa.gov. Public-domain U.S. Government work (17 USC §105) — freely reproducible.

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Document details

Doc number
20150008345
Publisher
NASA
Year
2015
Pages
17
File size
1.5 MB