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Aerial AId Closeout ReportThis report provides an overview of the Aerial AId activity, which focused on enabling assured computer vision onboard Uncrewed Aerial Systems (UAS) to deliver rapid situational awareness for emergency response operations. Conducted under the Convergent Aeronautics Solutions (CAS) project within NASA’s Aeronautics Research Mission Directorate, Aerial AId emerged from the CAS Discovery process in fiscal year 2024 and was executed through fiscal year 2025. The project aimed to address capability gaps in Drone-as-a-First-Responder (DFR) operations by developing and assuring trustworthy AI/ML perception engines tailored for aerial medical emergency scene assessment. Key accomplishments included the development of a runtime assurance framework for computer vision, the creation of a machine learning dataset focused on human stance detection for medical UAS applications, and the training of prototype object detection algorithms using aerial imagery. Aerial AId advanced the state of trustworthy computer vision technologies for autonomous DFR operations, contributing capabilities that support NASA’s mission to develop aeronautics technologies for societal benefit. This report documents the project’s formation, planning and execution, technical approach and outcomes, stakeholder engagement, and lessons learned—offering recommendations for future development of emergency response UAS technologies.
Document ID
20250009313
Acquisition Source
Langley Research Center
Document Type
Technical Memorandum (TM)
Authors
J Tanner Slagel
(Langley Research Center Hampton, United States)
Sarah M Lehman
(Langley Research Center Hampton, United States)
David Wagner
(Langley Research Center Hampton, United States)
Josh Fody
(Langley Research Center Hampton, United States)
Kyle Smalling
(Langley Research Center Hampton, United States)
John V Siratt
(Langley Research Center Hampton, United States)
Aaron Dutle
(Langley Research Center Hampton, United States)
Nelson Brown
(Armstrong Flight Research Center Edwards, United States)
Ricardo Arteaga
(Armstrong Flight Research Center Edwards, United States)
Massimo Vespignani
(KBR (United States) Houston, United States)
Sungshik Yim
(Analytical Mechanics Associates (United States) Hampton, United States)
Jack Fortner-Monegan
(Glenn Research Center Cleveland, United States)
Brandon Ruffridge
(Glenn Research Center Cleveland, United States)
Adharsh Kandula
(Northeastern University Boston, United States)
Kyler Shu
(Stanford University Stanford, United States)
Garrett Wright
(Virginia Polytechnic Inst. and State University Blacksburg, VA, United States)
Owenn Herrmann
(Iowa State University Ames, United States)
Date Acquired
September 16, 2025
Publication Date
November 1, 2025
Publication Information
Publisher: National Aeronautics and Space Administration
Subject Category
Aeronautics (General)
Report/Patent Number
NASA/TM-20250009313
Funding Number(s)
WBS: 533127.02.24.07.01
Distribution Limits
Public
Copyright
Portions of document may include copyright protected material.
Technical Review
NASA Peer Committee
Keywords
runtime assurance
formal methods
Aerial AId
drone-as-a-first-responser
artificial intelligence
machine learning
computer vision
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