Cognitive Issues Related to Moving-map Displays in Military Aircraft Maura C. Lohrenz Joint University Program in Air Transportation Systems, Ohio University.

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Presentation transcript:

Cognitive Issues Related to Moving-map Displays in Military Aircraft Maura C. Lohrenz Joint University Program in Air Transportation Systems, Ohio University June 13-14, 2002

SUMMARYAPPROACHINTRODUCTION  Introduction  Approach  Pilot interviews  Process model  Sample moving-map displays  Planned experimental design  Summary Outline

SUMMARYAPPROACHINTRODUCTIONINTRODUCTION Introduction  Background: at Naval Research Lab, improving cockpit moving-map displays for Navy pilots.  Critical issue in naval air missions: transition from primarily internal (head-down) to external (head-up) guidance, based on preliminary human factors analysis.  Goal: how to improve this transition with better moving-map display.  Parallel to civil aviation: IFR approach (transition from head-down in clouds to head-up below ceiling). Most critical during circling approach.

SUMMARYAPPROACHINTRODUCTIONINTRODUCTION Mission Mission being considered for evaluation: Forward Air Control (FAC) / Close Air Support (CAS) CAS FAC-A FAC-G Target

SUMMARYAPPROACHINTRODUCTIONAPPROACH Pilot Interviews  Purpose:  Informal task analysis  Gain insights into mission goals, information requirements, current problems, potential solutions, etc.  Interviewed 3 F/A-18 pilots at Naval Air Warfare Center (NAWC), Pax River, MD:  1 project officer for new cockpit moving-map display system (Pilot in command: 1200 F/A-18 hrs, 1700 total flight hrs)  1 experienced combat pilot: 24 missions over Iraq (PIC: 800 F/A-18, 1400 total flight hrs)  1 medical doctor / pilot (PIC: 700 F/A-18, 4500 total flight hrs)  Initial interviews in person (~1 hour each)  Follow-up telephone interviews (continuing)  May add more pilots (different insights, ideas)

SUMMARYAPPROACHINTRODUCTION APPROACH Primary Channels of Information Internal (head down) view: cockpit instruments, moving-map display External (heads up) view: “real world” environment Audio: radio communication (FAC-G, FAC-A)

SUMMARYAPPROACHINTRODUCTIONAPPROACH Process Model The following model is preliminary (still in development) …

GPS AIRCRAFT PILOT + INTERNAL VIEW: Cockpit map, instruments A/C control commands A/C position visualaural 2D perspective (God’s eye view); map abstractions of world features RADIO (GROUND) COMM: FAC-G, Commander, Ground troops Verbal description of 3D perspective from ground (immersed view); real-world features EXTERNAL VIEW: Real world image Map control commands Control Outgoing radio communication Sensing 3D perspective from air; real-world features Current Mental Model Integration / Correlation Expected Mental Model (e.g., mission plan) Identify discrepancies Resolve discrepancies Decisions Perception update

SUMMARYAPPROACHINTRODUCTIONAPPROACH Sample Information From Each Channel INTERNAL VIEW EXTERNAL VIEW Examples of each channel RADIO COMM

SUMMARYAPPROACHINTRODUCTIONAPPROACH Sample Map Displays Aeronautical chart data from National Imagery & Mapping Agency (NIMA) Jet Navigation Chart (JNC) 1:2M (80 nmi) Tactical Pilotage Chart (TPC) 1:500k (20 nmi) Joint Operational Graphic (JOG) 1:500k (10 nmi)

SUMMARYAPPROACHINTRODUCTIONAPPROACH Imagery from commercial and government (NIMA) sources ATFLIR Commercial black/white imagery (1 m / pixel) Commercial IR imagery (1 m / pixel) Digital Terrain Elevation Data (DTED) w/ sun-angle Image overlaid on DTED with route planning symbols Sample Image Displays

SUMMARYAPPROACHINTRODUCTIONAPPROACH Sample Vector Map Vector Smart Map (V-MAP) from NIMA  Information analysis indicates a need to remove extraneous information (“declutter”) during different mission phases (e.g.,target acquisition).  Need to identify most important features to support transition between internal / external guidance.

SUMMARYAPPROACHINTRODUCTIONAPPROACH Issues to Investigate  Which map features best support the transition between internal / external guidance phases?  Mental rotation / transformation: Can the orientation (e.g., track-up vs. ingress-up) of visual information (e.g., map, reconnaissance photos) impact transition?  How does scene bias / expectation bias affect the transition process?

SUMMARYAPPROACHINTRODUCTIONAPPROACH Experiments Being Considered  Set up mock FAC / CAS scenarios:  MS Flight Sim (for external environment, internal cockpit)  NPFPS (for both mission planning and in-flight moving-map)  Participants (pilots) to act as CAS  Possibly play prerecorded pseudo-FAC commands (ATC-like)  Experiment 1: identify map features that support transition  Provide pilots with maps at varying levels of detail  Test ability to make transition: speed and accuracy of target acquisition  Experiment 2: study impact of mental transformations on transition  Provide pilots with reconnaissance photograph of target area at various orientations (e.g., from ground vs. from air; ingress-up vs. other view)  Test performance (as in test 1) at different levels of visibility (i.e., clear vs. cloudy conditions)  Experiment 3: study effect of scene / expectation bias on transition  Provide pilots with information about target area during mission planning  Test performance when information is current and accurate vs. out-of- date or otherwise inaccurate

SUMMARYAPPROACHINTRODUCTIONAPPROACH Proposed Setup MS Flight Sim Forward View MS Flight Sim Right View MS Flight Sim Left View MS Flight Sim Instrument View NPFPS Moving-map Display  MS Flight Simulator 2002 with WidevieW extension simultaneously running on 2-3 networked PCs showing high-resolution outside scene (forward view, possibly left and right) and flight instrument panel.  Navy Portable Flight Planning System (NPFPS) on 4 th PC receives “real-time” GPS latitude / longitude coordinates from MS Flight Sim to drive moving-map display. Also provides preflight route planning functions. NPFPS currently used by F/A-18 pilots in Joint Mission Planning System.

SUMMARYAPPROACHINTRODUCTIONAPPROACH Sample Views Simulated real-world views from cockpit (MS Flight Simulator 2002) MS Flight Sim “Virtual Cockpit” forward view MS Flight Sim “Virtual Cockpit” top view

SUMMARYAPPROACHINTRODUCTIONSUMMARY Summary  Navy pilots experience difficulties during transition between internal  external guidance phases of target acquisition missions.  Parallels exist between military target acquisition and civilian IFR runway acquisition.  Preliminary hypothesis for thesis: tools to “synch” internal and external information paths will support communication / coordination among mission participants, improving transition phase and increasing potential for mission success.  Designing experiments to test hypothesis this summer. Tools under investigation will utilize moving-map and head-up displays.