UAS Loss of Link (UL2) Progress Report

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UAS Loss of Link (UL2) Progress Report Prepared for: Dr. Laskey Systems 798 Sponsor: Andy Lacher (MITRE CorporaCon) March 8, 2012 Rob Dean Steve Lubkowski Rohit Paul Sahar Sadeghian

Background MITRE CorporaCon This project is being sponsored by The MITRE CorporaCon, which is a not- for- profit organizacon that manages Federally Funded Research and Development Centers (FFRDCs). Unmanned AircraV System (UAS) A UAS is remotely piloted from ground stacons via a real- Cme command and control (C2) data link. If the link between the ground stacon and UAS is lost, the aircrav becomes autonomous uncl the link is re- established. 2

Problem De?inition When an Unmanned AircraV (UA) becomes autonomous, it becomes unpredictable to Air Traffic Control (ATC) ATC cannot adequately control airspace Risk of a loss of separacon or collision Unnecessary reroucng of air traffic Excess workload for ATC Creates a potencal risk and/or safety hazard Standardized procedures for loss of link situacons are necessary Events become more predictable/easier to manage for ATC Standardized procedures assist in bringing UAS to commercial airspace in greater numbers Develop methodology for evaluacng loss of link procedures 3

Approach QualitaCve Interviews to determine metrics from different stakeholders Global Hawk Pilot ATC UAS Experts Data Specialists Absolute/Binary Determine thresholds that must be met Technical Develop simulacons that analyze individual procedures Based on specific metrics (predictability, ATC workload) 4

Scope In Scope Within non- segregated civil airspace- NaConal Airspace System (NAS) Primary focus on UAS that are capable of extended flight operacons in Class A airspace To test/evaluate our approach with proposed procedure Out of Scope IdenCficaCon of opcmal procedure for loss of link situacons 5

Expected Results Set of metrics that are important to UAS stakeholders A methodology that can be used to evaluate procedures Repeatable and adaptable to different procedures Capable of being used for further research and analysis by the sponsor 6

Next Steps from Proposal ConCnue meecng with Sponsor ü Met with sponsor to discuss technical approach ü Got approval for project proposal Develop FuncConal Requirements for evaluacon methodology ü Developed and finalized both funcconal and project requirements Set up meecngs with Subject Maher Experts (SMEs) ü Created quesconnaires for each SME ü Interviewed all five SMEs recommended by our sponsor ü Had several follow- on interviews with people recommended by SMEs Finalize drav of project proposal ü Finalized project proposal 7

SME Interviews Met with all the SMEs recommended to us by our sponsor: Global Hawk UAS pilot ATC human- in- the- loop experiment analyst UAS loss of link data analyst Lead developer of automated ATC tool Traffic flow management lead architect 8

Modeling Technical modeling approaches were based on: Feedback from sponsor Interviews with SMEs UL2 team decided to focus on two main metrics: Predictability Air Traffic Control workload 9

Predictability Model - Timeline UAS Lost Command and Control Link Pilot Identifies UA has lost link UA recognizes lost link situation UA performs Maneuver 1 UA performs Maneuver 2 UA UAS Pilot UA losses command and control link with ground station Pilot identifies UA has lost link Pilot tries to Contact ATC UA broadcasts it has lost link UA performs Maneuver 1 UA performs Maneuver 2 Air Traffic Control Controller identifies UA with lost link Controller anticipates UA Maneuver 1 T0 T1 T2 T3 T4 T5 T6 T7 Time to identify lost link situation distribution Time before expected Maneuver 1 distribution

Predictability Model - Details Pseudo- measure for predictability will be Cme Time it take for the controller to realize the UA is in a loss of link situacon T4- T3 The difference between the expected Cme the UA will make its next maneuver and actual T6- T5 Input Controller reaccon Cmes to UA signaling loss- of- link Outputs Times of interest: T3, T4, T5, T6 To enhance the model, the model will also include the possibility of conflict Tc is the Cme to conflict Analyze the probability the UA will be in conflict before the controller realizes there is a loss of link situacon 11

Predictability Model - Sample Output Occurrence (#) Area of Interest 12 Time (seconds)

airspaceanalyzer Controller Workload SimulaCon tool developed by MITRE to automaccally separate, sequence, and space aircrav Measures sector complexity based on the amount of effort required to separate traffic Evaluates the impact of changes to sector on controller workload. Examples of potencal changes include: New Traffic Flows New Sector Boundaries Airspace RestricCons Moving weather systems What about UAS? 13 airspaceanalyzer Sample Display

airspaceanalyzer Adaptation for UAS Tool can be used to evaluate the impact of a specific UAS loss of link procedure on sector complexity and controller workload Specific metrics can be gathered to evaluate the increase in controller workload if UA goes lost link Lateral separacon effort VerCcal separacon effort Lateral spacing effort VerCcal spacing effort Some maneuver uncertainty can be modeled by adjuscng the amount of proteccon required for UA (e.g. increase from 5 NM to 10 NM in En Route airspace) 14

Schedule 15

Earned Value Management 16

Next Steps ConCnue meecng with Sponsor Complete proof of concept & develop predictability model Adapt scenarios for airspaceanalyzer Introduce our models to sponsor s UAS Team for feedback Start documencng our methodology and assemble our report 17

Questions? 18