一种用于基础设施维修和制造的高载荷空中平台

Lachlan Orr, B. Stephens, Basaran Bahadir Kocer, M. Kovač
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引用次数: 3

摘要

在建筑中使用空中机器人是机器人社区普遍感兴趣的领域。自主空中系统有可能提高工业建筑和维修过程的安全性、效率和可持续性。在这一领域已经部署了几种解决方案,重点是利用现有的空中平台进行空中操纵和控制,而这些平台并不是专门针对建筑工地操作的具体挑战。本文提出了一种新型的紧凑、高推力的空中平台,它可以作为一个模块化的、与应用无关的基础来展示各种各样的能力。该平台已经建成并测试了手动控制和自主运动跟踪竞技场的飞行,同时携带高达7.3公斤的有效载荷,最大飞行时间在10-34分钟之间(取决于有效载荷)。未来,该平台将与基于视觉的跟踪传感器、机械手和其他硬件相结合,在室外环境中运行并与之交互。未来的应用可能包括对重物的操纵、材料的沉积和在密闭空间中导航。
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A High Payload Aerial Platform for Infrastructure Repair and Manufacturing
The use of aerial robots in construction is an area of general interest in the robotics community. Autonomous aerial systems have the potential to improve safety, efficiency and sustainability of industrial construction and repair processes. Several solutions have been deployed in this domain focusing on problems in aerial manipulation and control using existing aerial platforms which are not specialised for the specific challenges in operating on a construction site. This paper presents a new compact, high thrust aerial platform that can act as a modular, application agnostic base for demonstrating a wide variety of capabilities. The platform has been built and tested flying both with manual controls and autonomously in a motion tracking arena while carrying a payload of up to 7.3 kg with a maximum flight time between 10–34 mins (payload dependent). In the future, this platform will be combined with vision based tracking sensors, manipulators and other hardware to operate in and interact with an outdoor environment. Future applications may include manipulation of heavy objects, deposition of material and navigating confined spaces.
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