Passive Ubiquitous Perception System Oriented to Aerospace-Ground Internet of Things Communication

Hong Hong;Wei Gong;Qiwei Wang
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Abstract

Because the aerospace-ground Internet no longer relies on deploying infrastructure such as base stations, it has the advantage of all-weather full coverage services that traditional terrestrial networks do not have. However, the traditional global navigation satellite system does not support communication services. The newly developing aerospace network system is still in the construction stage, and there is no applicable solution yet. Passive communication technology is an important method to solve the contradiction between the low battery capacity of the Internet of things (IoT) node and the high energy consumption of communication. It is the development trend of the IoT. However, the current passive technology based on Wi-Fi and other signals cannot achieve arbitrary communication due to the excitation signal acquisition problem. To solve the above two major problems, this paper proposes a passive system design for aerospace-ground IoT communication. The system can use the global navigation signal as excitation signal for backscatter communication. Because the global navigation signal has the characteristics of all-weather and full coverage, this design solves the carrier acquisition problem in previous work. In addition, this paper also proposes a low-power signal detection technology that can detect navigation signals with high precision on passive devices. We evaluate system performance through simulation experiments. The experimental results show that the backscatter system based on global navigation satellite signals can realize efficient communication of IoT nodes.
面向空地物联网通信的无源泛在感知系统
由于空地互联网不再依赖于部署基站等基础设施,因此具有传统地面网络所不具备的全天候全覆盖服务优势。然而,传统的全球导航卫星系统并不支持通信服务。新开发的航空航天网络系统尚处于建设阶段,还没有适用的解决方案。无源通信技术是解决物联网节点电池容量小与通信能耗大矛盾的重要方法。它是物联网的发展趋势。然而,目前基于 Wi-Fi 等信号的无源技术由于存在激励信号获取问题,无法实现任意通信。为解决上述两大问题,本文提出了一种用于空地物联网通信的无源系统设计。该系统可利用全球导航信号作为激励信号进行反向散射通信。由于全球导航信号具有全天候、全覆盖的特点,该设计解决了以往工作中的载波获取问题。此外,本文还提出了一种低功耗信号检测技术,可在无源设备上高精度地检测导航信号。我们通过仿真实验对系统性能进行了评估。实验结果表明,基于全球导航卫星信号的反向散射系统可以实现物联网节点的高效通信。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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