结合视觉和红外传感器的自主无人机鲁棒精确着陆

Giannis Badakis, Manos Koutsoubelias, S. Lalis
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引用次数: 6

摘要

基于无人机的系统面临的挑战之一是支持高精度的自动着陆,其精度超过了标准的现成GPS。为了支持这一点,人们做出了各种努力,主要是使用基于视觉和红外的传感器。然而,使用单个传感器不可避免地会引入单点故障。为了解决这个问题,我们将一个基于视觉的传感器与一个跟踪红外信标的传感器结合起来,该传感器可以检测特殊的视觉标记。我们还支持在这些传感器暂时无法探测到目标的情况下采取更谨慎的着陆方法。我们在一个成熟的自动驾驶框架的背景下实现我们的解决方案,通过模块化扩展,其余的软件堆栈是透明的。我们通过使用定制无人机进行现场实验来评估这些机制,通过在运行时发送给无人机的交互式命令,以可控的方式激活单个精确着陆传感器子系统的故障。结果表明,该方案在保持传感器无故障运行精度的前提下,实现了不同故障场景下的鲁棒精度着陆。
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Robust Precision Landing for Autonomous Drones Combining Vision-based and Infrared Sensors
One of the challenges in drone-based systems is to support automated landing with a high precision that goes beyond the accuracy of standard off-the-shelf GPS. Various efforts have been made to support this, mainly using vision-based and infrared sensors. However, using a single sensor inevitably introduces a single point of failure. To address this problem, we combine a vision-based sensor that detects special visual markers with a sensor that tracks an infrared beacon. We also support a more cautious landing approach for the case where these sensors temporarily fail to detect their targets. We implement our solution in the context of a mature autopilot framework, through modular extensions that are transparent to the rest of the software stack. We evaluate these mechanisms by conducting field experiments using a custom drone, activating faults in the individual precision landing sensor subsystems in a controlled way through interactive commands that are sent to the drone at runtime. The results show that our solution achieves robust precision landing under different failure scenarios while maintaining the accuracy of fault-free sensor operation.
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