Research Challenges Associated with Unmanned Aircraft Systems Airspace Integration

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Research Challenges Associated with Unmanned Aircraft Systems Airspace Integration Andrew Lacher 21 February 2012 For National Academy of Sciences: Aeronautics Research and Technology Roundtable MITRE 2012 The 2012 MITRE The MITRE Corporation, Corporation, All Rights All Reserved. Rights Reserved. Approved for Public Release Distribution Unlimited - Case: 12-0729 The views, opinions, and/or findings contained in this presentation are those of author(s) and The MITRE Corporation and should not be construed as an official Government position, policy, or decision, For Internal unless MITRE designated Use by other documentation. 2009 The MITRE Corporation. All rights reserved.

UAS Airspace Integration Vision UAS regularly operate in non-segregated civil airspace Aviation system safety is not degraded Manned aircraft flows are not disrupted MITRE 2012 The MITRE Corporation, All Rights Reserved. 2

Key UAS Integration Challenges Lack of See-and- Avoid Capability Fly-by-wireless System Reliability (Airworthiness) Line of Sight Beyond Line of Sight Vulnerabilities of Command and Control Link Air Traffic Management Integration Voice Link C2 Link Photo: MITRE - Cleavenger Photo: USAF Barclay Crew Qualifications and Training Air Traffic MITRE Focus UAS Control Crew MITRE 2012 The MITRE Corporation, All Rights Reserved. 3

Enable UAS Sense and Avoid Develop and mature UAS sense-andavoid solutions, evaluate and demonstrate their effectiveness, and assess their viability to inform policy decisions and standards Class E/G Airspace Photo: USAF Barclay UAS Crew MITRE 2012 The MITRE Corporation, All Rights Reserved. 4

Enable UAS C2 & ATM Integration Photo: USAF Identify specific operational challenges surrounding UAS command and control failures and integration with air traffic management, propose alternative solutions, and demonstrate their technical feasibility and operational effectiveness Challenges Unintentional or intentional RFI Loss/spoofing of C2 link Flight path and aircraft performance differences Autonomous operations Response latencies Controller work load MITRE 2012 The MITRE Corporation, All Rights Reserved. 5

UAS Airspace Integration Research Areas 1. Air Traffic Management Implications What is the impact on air traffic management of routine UAS operations in sectors of varying complexity? 2. Implications for NextGen Concepts How should the NAS evolve in the future towards NextGen to best accommodate UAS capabilities and unique airspace integration requirements? 3. Mitigations for the Lack of See and Avoid What are some alternatives that can safely mitigate the lack of see and avoid? 4. Standardized Lost Link and other Contingency Procedures What are the appropriate standardized procedures for lost link and other flight contingencies and how can their safety effectiveness be demonstrated? 5. Implications of Autonomy What are acceptable levels of autonomy for operations in the NAS? 6. Training and Pilot Qualifications What criteria and standards should the FAA establish for civil certification of UAS pilots and other required crew members? 7. Equipment Certification What criteria and standards should the FAA establish for civil certification of UAS equipment including aircraft, avionics, ground control stations, launch/recovery, and communications equipment? 8. Command and Control Link What are the communications system performance requirements (e.g., range, integrity, availability, latency) of the Command and Control (C2) link? 9. Airspace Security What are the airspace security implications of UAS? 10.Safety Risk Assessment How should safety risk assessment methodologies and criteria be customized for UAS operations? 11.Flight in Non-Traditional Regimes Can the FAA establish new safety and operational requirements for flight in non-traditional regimes (e.g., under bridges, urban canyons, in close proximity to buildings, below tree line)? MITRE 2012 The MITRE Corporation, All Rights Reserved. 6

Relative Priority - Unvalidated Less More Degree of Difficulty 11. Concepts for Flight New Regimes 6. Pilot Qual. & Training 2. NextGen Concepts 9. System Security 5. Autonomy 10. Safety Assessment Methods 8. C2 Link Spectrum & Stds 7. Certification Standards 4. Lost Link Procedures 1. ATM Integration 3. Sense and Avoid Less Urgency More Urgency: The pressing necessity of when and or what pace this research is conducted. Research from which results are needed immediately would thus be the most urgent. Degree of Difficulty: The relative complexity and risk associated with the research (not implementation or policy adoption). This should capture the technical risks associated with development efforts, the breadth of the unknowns, and the interaction of technical, operational, and policy issues. The greater the degree of difficulty the more the research would be dependent upon fundamental breakthrough for success. [based upon Mankins, John, Research & Development Degree of Difficulty (R&D3) - A White Paper, NASA Office of Space Flight - Advanced Projects Office, March 10, 1998] MITRE 2012 The MITRE Corporation, All Rights Reserved. 7

When is Autonomy Needed? Remain well clear, avoid collision Pilot MITRE 2012 The MITRE Corporation, All Rights Reserved. 8

Degrees of Autonomy Role of Automation (1) Human does the whole job, turning over to the computer to implement (2) Computer helps by determining the options (3) Computer helps to determine options & suggests one, human need not follow (4) Computer selects action and human may or may not do it (5) Computer selects action and implements it if human approves (6) Computer selects action, informs human in plenty of time to stop it (7) Computer does whole job and necessarily tells human what it did (8) Computer does whole job and tells human what it did only if human explicitly asks (9) Computer does whole job and decides what the human should be told (10) Computer does the whole job if it decides it should be done, and if so, tells human, if it decides that the human should be told Role of Human Thomas Sheridan and William Verplank Human and Computer Control of Undersea Teleoperators, Massachusetts Institute of Technology, Prepared for the Office of Naval Research, July 1978. MITRE 2012 The MITRE Corporation, All Rights Reserved. 9

Hardware not the Limiting Factor Ray Kurzweil and Kurzweil Technologies, Inc via Wikipedia MITRE 2012 The MITRE Corporation, All Rights Reserved. 10

Degrees of Autonomy Chasm Human Supervisory Control 1 Fully Automatic Autonomous All actions require Pilot intervention Automation may alert pilot and suggest courses of action Automation algorithms determine course of action Pilot remains informed and can override as needed Algorithms respond to input data without human input or possibility of override Take predetermined action Control Theory - Feedback loops Goal seeking - Sense / Act Non-deterministic inputs Judgment Emergent behavior Perception & Reasoning 1: Charles Billings, 1997, Aviation Automation: The Search for a Human-Centered MITRE 2012 The MITRE Corporation, All Rights Reserved. 11

Autonomous Flight UAS in the NAS Enables routine unmanned flight Improves the safety of all flight Enables future concepts Software Assurance Liability Requirements for Complex Non-Deterministic Software Cargo/Passenger Unmanned Aircraft Personal Transport Trust in Automation MITRE 2012 The MITRE Corporation, All Rights Reserved. U.S. Navy photo Courtesy Northrop Grumman Images: istockphoto.com 12

A Potential Evolution Heavy Crew: 4 Pilots - $$$$ today Light Crew 1: T/O, Transition, & Landing - 2 Pilots, 1 Remote Pilot - $$$ Light Crew 2: T/O, Transition, & Landing - 2 Pilots, PT Remote Pilot - $$$ Single Crew: T/O, Transition, & Landing - 1 Pilots, PT Remote Pilot - $$ Long-Haul Cargo Jumbo Unmanned: 1 PT Remote Pilot - $ 20?? MITRE 2012 The MITRE Corporation, All Rights Reserved. Image: istockphoto.com 13

The Long-term Need Research to help define and determine whether autonomous flight is a goal If so when? Research to help cross the chasm between automatic flight and autonomous flight Image: Andrew Lacher MITRE 2012 The MITRE Corporation, All Rights Reserved. 14

Conclusion I Thank You MITRE www.arcent.army.mil 2012 (Photo The MITRE by Petty Corporation, Officer 1st All Class Rights Michael Reserved. Larson) 15