基于实地可编程门数组的零信任流数据加密实现,以实现6G窄带物联网大规模设备访问.
1Department of Intelligent Production Engineering, National Taichung University of Science and Technology, Taichung City 404, Taiwan.
Sensors (Basel, Switzerland)
|February 10, 2024
概括
本研究介绍了一个硬件和软件共同设计的机制,用于6G窄带物联网 (NB-IoT) 安全,增强大规模机器类型通信 (mMTC). 该解决方案可显著降低微处理器负载,以确保安全的数据传输.
科学领域:
- 电信工程 电信工程 电信工程
- 计算机安全 计算机安全
- 网络架构 网络架构
背景情况:
- 向6G窄带物联网 (NB-IoT) 的演变为大规模机器类型通信 (mMTC) 带来了重大安全挑战.
- 6G基站 (gNB) 和用户设备 (UE) 需要增强容量,以实现众多连接和持续的性能.
- 现有的系统在管理高密度,安全的物联网部署需求方面面临障碍.
研究的目的:
- 提出一种新的硬件加速和软件共同设计的机制,用于在6G网络中安全的物联网通信.
- 增强流数据传输和零信任端点间通信的安全性和性能.
- 从微处理器中卸载处理,提高整体系统运行效率.
主要方法:
- 开发一个硬件加速和软件共同设计的终端通信机制.
- 实施安全的零信任端点间通信协议.
- 使用现场可编程网关数组 (FPGA) 进行硬件加速.
- 使用不重复的密钥,在数据块传输过程中增强安全性.
主要成果:
- 拟议的机制大大减少了微处理器的处理时间:85.61%在关键区块生成中,99.71%在非重复检查中,95.68%在数据区块传输中.
- 通过硬件和软件共同设计,证明了全球系统运行性能的提高.
- 成功实施安全的流数据传输和零信任通信.
结论:
- 这种硬件加速,软件共同设计的方法有效地解决了6G NB-IoT对mMTCs的安全挑战.
- 拟议的机制为物联网端点提供了显著的性能提升和安全改进.
- 这种解决方案对于在未来的6G网络中实现强大和安全的大规模物联网部署至关重要.
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