IEEE Transactions on Vehicular Technology · 2018 · 366 citations · 48 references
Vehicle CommunicationEngineeringDeep ReinforcementNetwork AnalysisOn-demand TransportOperations ResearchIntelligent Traffic ManagementVehicle NetworkCombinatorial OptimizationTransportation EngineeringConnected CarComputer EngineeringResource Allocation PolicyMobility-aware Edge CachingMobile ComputingComputer ScienceVehicle NetworksDeep Reinforcement LearningEdge ComputingOperational ExcellenceBusinessGrand Challenges
This paper studies the joint communication, caching and computing design problem for achieving the operational excellence and the cost efficiency of the vehicular networks. Moreover, the resource allocation policy is designed by considering the vehicle's mobility and the hard service deadline constraint. These critical challenges have often been either neglected or addressed inadequately in the existing work on the vehicular networks because of their high complexity. We develop a deep reinforcement learning with the multi-timescale framework to tackle these grand challenges in this paper. Furthermore, we propose the mobility-aware reward estimation for the large timescale model to mitigate the complexity due to the large action space. Numerical results are presented to illustrate the theoretical findings developed in the paper and to quantify the performance gains attained.
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