SUAV:Q - An improved design for a transformable solar-powered UAV

Ruben D'Sa, Devon Jenson, T. Henderson, J. Kilian, B. Schulz, M. Calvert, T. Heller, N. Papanikolopoulos
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引用次数: 22

Abstract

Throughout the wide range of aerial robot related applications, selecting a particular airframe is often a trade-off. Fixed-wing small-scale unmanned aerial vehicles (UAVs) typically have difficulty surveying at low altitudes while quadrotor UAVs, having more maneuverability, suffer from limited flight time. Recent prior work [1] proposes a solar-powered small-scale aerial vehicle designed to transform between fixed-wing and quad-rotor configurations. Surplus energy collected and stored while in a fixed-wing configuration is utilized while in a quad-rotor configuration. This paper presents an improvement to the robot's design in [1] by pursuing a modular airframe, an optimization of the hybrid propulsion system, and solar power electronics. Two prototypes of the robot have been fabricated for independent testing of the airframe in fixed-wing and quad-rotor states. Validation of the solar power electronics and hybrid propulsion system designs were demonstrated through a combination of simulation and empirical data from prototype hardware.
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SUAV:Q -一种可变形太阳能无人机的改进设计
在广泛的航空机器人相关应用中,选择特定的机身往往是一种权衡。固定翼小型无人机通常在低空测量上存在困难,而四旋翼无人机具有更大的机动性,飞行时间有限。最近的前期工作[1]提出了一种太阳能驱动的小型飞行器,可以在固定翼和四旋翼构型之间转换。在固定翼配置中收集和存储的剩余能量在四旋翼配置中被利用。本文提出了一个改进机器人的设计[1]通过追求模块化的机身,混合动力推进系统的优化,和太阳能电力电子。该机器人的两个原型已经被制造出来,用于在固定翼和四旋翼状态下对机体进行独立测试。通过仿真和原型硬件的经验数据相结合,验证了太阳能电子和混合动力推进系统的设计。
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