Infotech@Aerospace 2011 · 2011 · 44 citations · 10 references
EngineeringAerospace EngineeringSystems EngineeringAutomationSchedulingUnmanned Aircraft SystemsCrew SchedulingHuman-machine InterfacesMission PlanningOperator Interface DesignShared AutonomyAutonomous Mission ExecutionCentralized Mission PlanningDecision Maker InteractionHuman Factors In Flight Deck AutomationHuman-automation Decision MakingMission Planning SystemsNaval AviationOperators
The integration of unmanned aerial vehicles into naval aircraft carrier operations will increase complexity and demand more automation, yet existing automated planners are brittle and struggle with dynamic conditions, prompting research into human–planner interaction to enhance mission performance. The study presents the design features of DCAP and aims to quantify the added value of integrating planning and scheduling algorithms into complex decision processes. A user interface called DCAP lets a human decision maker interact with a centralized planning algorithm to schedule aircraft, ground vehicles, and personnel, combining human goal‑directed behavior with automated planning to produce feasible, robust schedules. Preliminary evaluation results show that layering planning and scheduling algorithms into the decision process improves performance in aircraft carrier deck operations.
In the near future, unmanned aerial vehicles will become part of the naval aircraft carrier operating environment. This will add significant complexity to an already highly constrained and dangerous environment. The move towards a shared manned-unmanned environment with an increasing operational tempo in a reduced manning environment will mean more automation is needed in the planning and scheduling of aircraft, ground vehicles, and crew in these complex environments. However, while automated planning algorithms are fast and able to handle large quantities of information in a short period of time, they are often brittle, unable to cope with changing conditions in highly dynamic environments. Recent research has shown that by allowing high-level interaction between human operators and automated planners, significant increases in overall mission performance can achieved. To this end, a user interface has been developed that allows a human decision maker managing aircraft carrier deck operations the ability to interact directly with a centralized planning algorithm for scheduling aircraft in flight and on the deck (both manned and unmanned), as well as ground vehicles and personnel. This Deck operations Course of Action Planner (DCAP) system leverages the experience and high-level, goal-directed behavior of the human decision maker in conjunction with a powerful automated planning algorithm to develop feasible, robust schedules. This article highlights the design features of DCAP and presents preliminary results from an evaluation designed to quantify the value added by layering in planning and scheduling algorithms into this complex decision process.
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