Integrated UWB-Vision Approach for Autonomous Docking of UAVs in GPS-denied Environments

Thien-Minh Nguyen, T. Nguyen, Muqing Cao, Zhirong Qiu, Lihua Xie
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引用次数: 41

Abstract

Though vision-based techniques have become quite popular for autonomous docking of Unmanned Aerial Vehicles (UAVs), due to limited field of view (FOV), the UAV must rely on other methods to detect and approach the target before vision can be used. In this paper we propose a method combining Ultra-wideband (UWB) ranging sensor with vision-based techniques to achieve both autonomous approaching and landing capabilities in GPS-denied environments. In the approaching phase, a robust and efficient recursive least-square optimization algorithm is proposed to estimate the position of the UAV relative to the target by using the distance and relative displacement measurements. Using this estimate, UAV is able to approach the target until the landing pad is detected by an onboard vision system, then UWB measurements and vision-derived poses are fused with onboard sensor of UAV to facilitate an accurate landing maneuver. Real-world experiments are conducted to demonstrate the efficiency of our method.
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gps拒绝环境下无人机自主对接的集成超宽带视觉方法
尽管基于视觉的技术在无人机的自主对接中已经非常流行,但由于视野(FOV)有限,无人机必须依靠其他方法来检测和接近目标,然后才能使用视觉。在本文中,我们提出了一种结合超宽带(UWB)测距传感器和基于视觉的技术的方法,以实现在gps拒绝环境下的自主接近和着陆能力。在逼近阶段,提出了一种鲁棒高效的递推最小二乘优化算法,利用距离和相对位移测量来估计无人机相对于目标的位置。利用该估计,无人机能够接近目标,直到着陆垫被机载视觉系统检测到,然后UWB测量和视觉衍生姿态与无人机机载传感器融合,以促进精确的着陆机动。实际实验证明了该方法的有效性。
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