KAI XIONG, SUPENG LENG, KE ZHANG, et al. Research on heterogeneous radio access and resource allocation algorithm in vehicular fog computing. [J]. Chinese journal on internet of things, 2019, 3(2): 20-27.
DOI:
KAI XIONG, SUPENG LENG, KE ZHANG, et al. Research on heterogeneous radio access and resource allocation algorithm in vehicular fog computing. [J]. Chinese journal on internet of things, 2019, 3(2): 20-27. DOI: 10.11959/j.issn.2096-3750.2019.00108.
Research on heterogeneous radio access and resource allocation algorithm in vehicular fog computing
With the development of intelligent transportation and the constant emergence of new vehicular on-board applications
such as automatic driving
intelligent vehicular interaction and safety driving.It is difficult for an independent vehicle to run a wide variety of applications with a large number of computing needs and time delay needs relying on its own limited computing resources.By distributing computing tasks in devices on the edge of the network
fog computing applies virtualization technology
distributed computing technology and parallel computing technology to enable users to dynamically obtain computing power
storage space and other services on demand.Applying fog computing architecture to Internet of vehicles can effectively alleviate the contradiction between the large computing-low delay demands and limited vehicular resources.By analyzing the channel capacity of vehicle-to-vehicle communication
vehicle-infrastructure communication and vehicle-time-delay tolerant network communication
an optimization model of heterogeneous access to multi-service resources for the Internet of vehicles was established
and various vehicle-to-fog resources were jointly dispatched to realize efficient processing of intelligent transportation applications.The simulation results show that the proposed reinforcement learning algorithm can effectively deal with the resource allocation in the heterogeneous vehicular fog architecture.
关键词
车联网车联雾车辆时延容忍网络Q学习算法资源分配
Keywords
Internet of vehicles (IoV)vehicular fogvehicular delay tolerant network (VDTN)Q-learning algorithmresource allocation
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