arXiv:2411.01985cs.RO2024-11中稿 · IEEE Communication…被引 8

新型全向无人机可同时控制位置与天线朝向,提升通信灵活性。

Reshaping UAV-Enabled Communications with Omnidirectional Multi-Rotor Aerial Vehicles

  • 通过全向多旋翼无人机实现天线姿态独立控制
  • 仿真显示其在物理层安全与光通信中性能显著提升
  • 适合研究智能通信网络与无人机协同系统

一类新型多旋翼飞行器(o-MRAVs)在机器人领域引起广泛关注。这类飞行器具备独立控制三维位置和三维姿态的能力,在空中通信网络中,无需额外设备即可自主调整搭载天线的方向。这一新增的自由度为通信系统带来全新维度,推动了面向通信的轨迹规划与定位研究。本文介绍此类飞行器并探讨其在物理层安全、光通信等场景的应用。通过真实仿真验证其优势,并讨论该先进机器人技术带来的新研究问题与机遇。

原文摘要 · Abstract (English)

A new class of Multi-Rotor Aerial Vehicles (MRAVs), known as omnidirectional MRAVs (o-MRAVs), has attracted significant interest in the robotics community. These MRAVs have the unique capability of independently controlling their 3D position and 3D orientation. In the context of aerial communication networks, this translates into the ability to control the position and orientation of the antenna mounted on the MRAV without any additional devices tasked for antenna orientation. This additional Degrees of Freedom (DoF) adds a new dimension to aerial communication systems, creating various research opportunities in communications-aware trajectory planning and positioning. This paper presents this new class of MRAVs and discusses use cases in areas such as physical layer security and optical communications. Furthermore, the benefits of these MRAVs are illustrated with realistic simulation scenarios. Finally, new research problems and opportunities introduced by this advanced robotics technology are discussed.

无人机通信多旋翼飞行器天线控制智能网络

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