Development and Experimental Evaluation of a Quad-Tilt-Wing Flying Robot Platform

A. Aihaitijiang, C. Onal
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Abstract

In this paper, we present the mechanical design and control system of a new indoor and outdoor Quad-Tilt-Wing flying robot. The proposed flying robot can achieve vertical takeoff, hovering, and long duration horizontal high-speed flight. All of these flight modes can be achieved by simply changing the angle of the rotors and wings by a tilt mechanism. We present the details on design and prototyping, the attitude control system, and experimental results, including wind-tunnel experiments, full flight tests, and performance tests. The experimental results show that our Quad-Tilt-Wing flying robot successfully achieves full conversion flight: vertical and rapid takeoff, high-speed cruise, and vertical landing. Performance test results show that during horizontal flight, the wings generate lift and effectively reduce energy use compared to a fixed quad rotor architecture. Consequently, the proposed platform combines unique features of multi-rotor and fixed wing systems to achieve long-duration flight with low-energy compared to a conventional multi-rotor UAV.
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四倾翼飞行机器人平台研制与实验评价
本文介绍了一种新型室内外四倾翼飞行机器人的机械设计和控制系统。所设计的飞行机器人可以实现垂直起飞、悬停和长时间水平高速飞行。所有这些飞行模式都可以通过倾斜机制简单地改变旋翼和机翼的角度来实现。我们详细介绍了设计和原型,姿态控制系统,以及实验结果,包括风洞实验,全飞行测试和性能测试。实验结果表明,四倾翼飞行机器人成功实现了垂直快速起飞、高速巡航和垂直降落的全转换飞行。性能测试结果表明,在水平飞行时,与固定的四旋翼结构相比,机翼产生升力并有效地减少了能量消耗。因此,与传统的多旋翼无人机相比,所提出的平台结合了多旋翼和固定翼系统的独特功能,以低能量实现长时间飞行。
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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