结合燃料电池和超级电容器组为垂直起降无人机系统提供动力

Justin A. Laddusaw, A. Pollman, O. Yakimenko, A. Gannon
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引用次数: 0

摘要

这项研究研究了燃料电池和超级电容器的结合,为垂直起飞无人机系统(UAS)创造了一种混合动力系统。这取代了更常见的纯电池动力系统或混合燃料电池动力系统。二次电源,如电池或超级电容器,是必需的,以协助燃料电池的即时负载请求,因为燃料电池不能提供瞬时电力。燃料电池超级电容器在起飞、悬停和着陆过程中,使用电池驱动的垂直起飞无人机实验确定的功率曲线进行测试。这个桌面实验是为了找到一个更精确的解决方案,可以很容易地扩展到一个更小的未来垂直起飞的无人机。两个独立的超级电容器组与燃料电池平行放置。第一个是一系列14650法拉的超级电容器,第二个是一系列14350法拉的超级电容器。这两种燃料电池-超级电容器动力系统都能够在不需要外部电源的情况下满足动力要求,同时也为燃料电池本身供电。未来的工作机会包括将其扩展到无人机平台,并对电源管理软件进行编码,以最佳地管理拟议的混合动力系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Combining a Fuel Cell and Ultracapacitor Bank to Power a Vertical Take-Off and Landing Unmanned Aerial System
This research investigated the combination of a fuel cell and ultracapacitors to create a hybrid powertrain for a vertical take-off unmanned aerial system (UAS). This replaced the more common battery-only powertrain or the hybrid fuel cell-battery powertrain. A secondary power source, such as a battery or ultracapacitors, is required to assist a fuel cell with immediate load requests because fuel cells are unable to supply instantaneous power. The fuel cell-ultracapacitor was tested using a power profile that was experimentally determined using a battery-powered vertical take-off UAS during take-off, hover, and landing. This tabletop experiment is meant to lead to a more refined solution that can be easily scaled to fit into a smaller future vertical take-off UAS. Two separate ultracapacitor banks were made to be put in parallel with the fuel cell. The first was a series of 14, 650 Farad ultracapacitors and the second was a series of 14, 350 Farad ultracapacitors. Both fuel cell-ultracapacitor powertrains were able to meet the power requirements while also supplying power to the fuel cell itself, without an external power supply. Future work opportunities include scaling for implementation into a UAS platform and coding the power management software to optimally manage the proposed hybrid powertrain.
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