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引用次数: 2

摘要

本文报道了一种通过引入柔性翼段来提高扑翼能量采集器输出功率的新方法。扑翼气流能量收集器由悬臂梁结构组成,其自由端有机翼。在机翼前面放置一个钝体,以诱导空气动力学不稳定性,导致机翼上下振荡。通过将换能器耦合到振荡翼上,在这种情况下是电磁的,可以产生电能。在本研究中,所提出的气流能量采集器采用可弯曲的柔性翼段,而不是常用的刚性翼,从而减少了机翼振荡时的气动阻力。因此,可以降低整体机械阻尼,并增加所提出的能量采集器的输出功率。实验结果表明,所提出的方法能够提高高风速下扑动气流能量采集器的性能。
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A Flapping Airflow Energy Harvester with Flexible Wing Sections
This paper reports a novel method to improve output power of a flapping airflow energy harvester by introducing flexible wing sections. The flapping airflow energy harvester consists of a cantilever beam structure with a wing at its free end. A bluff body is placed in front of the wing to induce aerodynamic instability that leads to up and down oscillation of the wing. By coupling transducers to the oscillating wing, electromagnetic in this case, electrical energy can be generated. In this research, instead of using a commonly used rigid wing, the proposed airflow energy harvester has flexible wing sections that are able to bend, thus reduce the aerodynamic resistance during the wing oscillation. Therefore, the overall mechanical damping can be reduced and output power of the proposed energy harvester is increased. It is found experimentally that the proposed method is able to improve energy harvester performance of flapping airflow energy harvesters under high airflow speeds.
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