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Deep reinforcement learning for carrier-based aircraft flight deck operations scheduling problem.
Changjiu Li1, Wei Han1, Haixu Li2
1Naval Aviation University, Yantai 264001, Shandong, PR China.
Summary
A new deep reinforcement learning framework optimizes flight deck operations scheduling, outperforming traditional methods. This AI approach significantly reduces decision time while maintaining high-quality schedules for complex, real-time demands.
Area of Science:
- Operations Research
- Artificial Intelligence
- Computer Science
Background:
- Flight deck operations scheduling is a complex, NP-hard problem.
- Traditional methods struggle with the efficiency-solution quality trade-off.
Purpose of the Study:
- To develop an advanced AI framework for optimizing flight deck scheduling.
- To overcome limitations of existing computational methods.
Main Methods:
- A deep reinforcement learning framework integrated with graph neural networks.
- Formulation as a Markov decision process for agent-based scheduling.
- Utilized a softmax exploration strategy with a discount factor of 1.0.
Main Results:
- The AI agent significantly improved solution quality over priority dispatching rules.
- Achieved competitive performance against meta-heuristics on small-scale problems.
- Demonstrated superior search capabilities on large-scale instances.
- Reduced scheduling decision time from minutes to seconds.
Conclusions:
- The proposed deep reinforcement learning framework offers a superior approach to flight deck scheduling.
- This AI solution meets real-time operational demands with high-quality, efficient schedules.
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