建立基于无人机的自主移动和波束成形实验试验台

Yan Shi, John Wensowitch, Alexander Ward, Mahmoud Badi, J. Camp
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引用次数: 6

摘要

无人机已被广泛应用于搜救、侦察、灾难恢复等领域。然而,无人机的机动性可能会威胁到在实际部署中保持稳健传输的能力。一方面,需要先进的软件方法和广泛的实验来确保安全和自主飞行。另一方面,为了解锁无人机通信的额外容量,必须利用额外的技术,例如通过基于mimo的波束形成的方向性,这需要在飞行中反馈准确的信道信息。软件定义无线电(SDR)平台在填补多频段、可定制设计和性能表征方面的空白方面发挥着重要作用。在这项工作中,我们提出了硬件设置以及我们提出的测试平台的软件架构,用于两种不同的应用:自主移动和波束形成。在自主移动的情况下,我们使用MAVLink在可定制的无人机平台上构建了一个强大的无人机控制框架。我们的实验证明了智能自动飞行模式的可行性。在波束形成的情况下,我们在基于无人机的SDR平台上实现了一种波束形成方案,并在各种情况下评估了其性能。我们的评估表明,基于无人机的波束形成可以显著提高吞吐量比传统方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Building UAV-Based Testbeds for Autonomous Mobility and Beamforming Experimentation
Unmanned aerial vehicles have been deployed in many applications such as search and rescue, reconnaissance, and disaster recovery. However, UAV mobility can threaten the ability to maintain robust transmissions in practical deployments. On one hand, advanced software methodologies and extensive experiments are required to ensure safe and autonomous flights. On the other hand, to unlock additional capacity in drone communications, additional techniques must be leveraged such as directionality via MIMO-based beamforming, requiring accurate channel information to be fed back in- flight. Software defined radio (SDR) platforms play a major role in filling these gaps in multiple frequency bands, customizable design, and performance characterization. In this work, we present the hardware setup as well as software architecture of our proposed testbed leveraged for two different applications: autonomous mobility and beamforming. In the autonomous mobility case, we build a robust UAV-control framework on a customizable drone platform using MAVLink. Our experiments have demonstrated the feasibility of intelligent automated flight patterns. In the beamforming case, we implement a beamforming scheme on a drone-based SDR platform and evaluate its performance in various contexts. Our evaluations reveal that the drone-based beamforming can improve throughput significantly over conventional schemes.
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