Long-Duration Autonomy for Small Rotorcraft UAS Including Recharging

Christian Brommer, Danylo Malyuta, Daniel Hentzen, R. Brockers
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引用次数: 22

Abstract

Many unmanned aerial vehicle surveillance and monitoring applications require observations at precise locations over long periods of time, ideally days or weeks at a time (e.g. ecosystem monitoring), which has been impractical due to limited endurance and the requirement of humans in the loop for operation. To overcome these limitations, we propose a fully autonomous small rotorcraft UAS that is capable of performing repeated sorties for long-term observation missions without any human intervention. We address two key technologies that are critical for such a system: full platform autonomy including emergency response to enable mission execution independently from human operators, and the ability of vision-based precision landing on a recharging station for automated energy replenishment. Experimental results of up to 11 hours of fully autonomous operation in indoor and outdoor environments illustrate the capability of our system.
包括充电在内的小型旋翼无人机长时间自主性研究
许多无人机监视和监测应用需要长时间在精确位置进行观察,理想情况下是一次观察数天或数周(例如生态系统监测),由于有限的耐力和操作循环中对人类的要求,这是不切实际的。为了克服这些限制,我们提出了一种完全自主的小型旋翼无人机,它能够在没有任何人为干预的情况下执行长期观察任务的重复架次。我们解决了对这样一个系统至关重要的两项关键技术:包括应急响应在内的全平台自主性,使任务能够独立于人类操作员执行,以及基于视觉的精确降落在充电站上的能力,以实现自动能量补充。在室内和室外环境下长达11小时的完全自主运行的实验结果证明了我们的系统的能力。
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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