Quick Takeaways
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Subscale Aircraft Development: NASA’s Armstrong Flight Research Center is creating a new subscale aircraft to enhance flight research efficiency and reduce costs compared to crewed missions.
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Innovative Prototyping: The aircraft, designed by pilots Justin Hall and Justin Link, will replace the aging MicroCub, featuring a 14-foot wingspan and advanced systems for improved flight experiments.
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Accelerating Technology: The Dale Reed Subscale Flight Research Laboratory facilitates rapid testing of new technologies, increasing readiness for full-scale missions on Earth and beyond.
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Future Applications: The new aircraft will support innovative projects like autonomous aerial recapture, improving operational efficiency and reducing costs for scientific missions involving drone deployments.
NASA Lab Builds New Aircraft to Support Complex Flight Research
NASA’s Armstrong Flight Research Center in California is developing a new subscale aircraft to enhance flight research. Consequently, this initiative aims to provide a more flexible and cost-effective alternative to traditional crewed missions.
The aircraft is a project led by a team focused on replacing the aging MicroCub subscale aircraft. This new platform will save time and reduce costs in flight testing. The aircraft features a wingspan of about 14 feet, a length of nine-and-a-half feet, and a weight of around 60 pounds.
The subscale laboratory significantly accelerates innovation. It utilizes small, remotely piloted aircraft to test new aerodynamic concepts and flight control systems. Named after an aerospace pioneer, the lab allows for rapid prototyping and reduces risks before transitioning to full-scale testing. This approach is vital for increasing technology readiness for future NASA missions on Earth and beyond.
To enhance capabilities, the team is modifying an existing aircraft kit. They are adding a more powerful engine, an autopilot system, and advanced instrumentation. The reinforced structure promises greater flexibility for flight experiments. As a result, this allows for more frequent and affordable testing compared to crewed aircraft.
One exciting application of the new aircraft is the Robust Autonomous Aerial Recapture project. This initiative employs sensors and advanced programming to adapt during mid-air capture. It incorporates a magnetic connection mechanism for two aircraft, showcasing innovative technology integration.
Such capabilities could transform future science missions. For instance, a mothership might deploy drones to collect samples, recharge, and redeploy for additional missions. This approach could save fuel, cut costs, and enhance efficiency. Funding for this aerial recapture work comes from NASA’s Armstrong Center Innovation Fund and the Space Technology Mission Directorate.
As NASA continues to pioneer in flight research, these advancements promise to improve technology development and expand possibilities for future explorations.
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