大规模无线通信网络移动边缘计算和缓存研究

doi:10.11959/j.issn.1000-436x.2021096

Abstract

Abstract:

For the large-scale network mobile edge computing and caching technology of future 6G mobile communications, firstly, the architectures and principles of mobile edge computing and caching in large-scale wireless networks were introduced, and the necessity and universality were clarified.Then, from the perspective of the five key issues in the mobile edge computing and caching enabled large-scale wireless network, including computing offloading, edge caching, multi-dimensional resource allocation, user association and privacy protection, the recent researches and further pointed out the future development trends and research directions were reviewed and analyzed.Finally, for the privacy preservation issue, a federated learning based privacy-preserving scheme was proposed.Simulation results show that the proposed scheme can simultaneously preserve user privacy and improve the quality of service.

Key words: massive wireless network, mobile edge computing, caching, privacy protection, federated learning

CLC Number:

TN92

Yongming HUANG, Chong ZHENG, Zhengming ZHANG, Xiaohu YOU. Research on mobile edge computing and caching in massive wireless communication network[J]. Journal on Communications, 2021, 42(4): 44-61.

Figures/Tables 10

关键问题	关键研究点	相关文献	方法论
	能耗敏感型计算卸载	文献[15-16]	整体卸载，基于SCA的迭代优化的卸载
计算卸载问题			部分卸载，基于阈值优先级的计算卸载
	时延敏感型计算卸载	文献[17]	基于Lyapunov的低复杂度在线动态计算卸载
	时延-能耗敏感型计算卸载	文献[18-19]	基于惩罚函数和D.C.规划的迭代搜索计算卸载
			基于交替凸搜索的计算卸载
			基于统计用户请求的历史数据
	非编码缓存	文献[21-26]	基于优化算法
边缘缓存问题			基于动态规划和强化学习
边缘缓存问题			基于深度神经网的PDA设计
	编码缓存	文献[20,27-30]	基于强化学习的缓存更新和多播调度
			基于优化算法
	计算资源分配	文献[31-32]	时间维度的资源分配，基于Lyapunov的最优计算资源分配
			空间维度的资源分配，基于势博弈论的计算资源分配
	缓存资源分配	文献[33-34]	基于用户社交关系的静态缓存资源配置
多维资源分配问题			基于用户时变内容请求的在线响应式动态缓存资源分配
多维资源分配问题	能量资源分配	文献[35-36]	CSI和TSI知识完备时，基于凸优化的离线传输功率分配算法实；CSI和TSI知识仅因果已知，基于启发式的在线传输功率分配
			基于拉格朗日对偶法的离线能耗优化算法；基于滑动窗口以及序列优化的在线传输功率分配算法
	通信资源分配	文献[37]	基于回声状态网络和迁移学习的上下行传输资源块动态分配
	混合资源分配	文献[38-39]	基于深度强化学习的通信与计算资源联合分配
			基于自适应优化算法、粒子群算法与Pareto一对一匹配算法相结合的计算、能量和通信资源混合资源分配
用户关联问题	基于时延最小化用户关联	文献[40]	基于深度强化学习的自适应用户关联算法，实现任务总计算时延最小化
	基于能耗最小化用户关联	文献[41]	基于最短路径优化的用户关联算法，实现时延约束下的能效最大化
			基于粒子群的用户关联，实现时延能耗联合代价最小化
	基于能耗?时延权衡用户关联	文献[42-44]	基于0-1整数规划的迭代优化用户关联，实现时延能耗联合定义的QoE代价最小化
			基于模拟退火的用户关联，实现用户QoE最大化
			基于Markov决策的策略迭代算法来保护用户位置隐私的同时实现最优业务迁移决策
	用户位置隐私保护	文献[50-52]	基于chaff的保护策略来对抗窃听者，保护用户位置隐私
隐私保护问题			基于图学习来保护用户位置隐私的同时实现基本的业务提供
隐私保护问题			深度强化学习联合区块链授权与认证的用户数据加密技术，实现安全的内容缓存服务
	用户数据隐私保护	文献[53-56]	博弈论联合中国余数论的内容加密协议，实现用户数据隐私保护下的多归属访问缓存业务
			基于概率论的公钥加密技术，实现数据隐私保护下的用户排名查询业务基于混沌系统的伪随机置换加密技术

方案	总用户数					测试集准确率
方案	总用户数	λ=0.990	λ=0.991	λ=0.992	λ=0.993	λ=0.994	λ=0.995	λ=0.996	λ=0.997	λ=0.998	λ=0.999
FL无缓存							78.47%
	400
FL有缓存		79.68%	79.05%	79.19%	80.40%	79.62%	80.78%	79.7%	$78 . 84 %$	80.11%	78.84%
FL无缓存							77.36%
	500
FL有缓存		77.70%	$78 . 84 %$	77.64%	76.65%	77.77%	78.05%	77.92%	78.70%	77.30%	78.03%

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