防倾斜和可制造的雾耙,用于高效集水

Droplet Pub Date : 2023-08-01 DOI:10.1002/dro2.78
Jimmy K. Kaindu, Kevin R. Murphy, Nicholas G. Kowalski, Alexandra N. Jones, Matthew Davis Fleming, Brook S. Kennedy, Jonathan B. Boreyko
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引用次数: 2

摘要

雾Harps比传统的基于网格的收割机收获更多的水。然而,到目前为止,所有大规模的Fog Harps都是在低线张力下手工缠绕的,并且存在弹性毛细管线缠结。在这里,我们开发了可制造和防倾斜的大型高张力雾灯。这些雾Harp保留了其优化比例模型对应物的创纪录的雾收集效率(η≈17$\eta\approximate 17$%),同时独特地实现了实际应用。可制造性是通过调整制造竖琴筛的工业工艺来实现的,这是一种用于筛选固体材料的预先存在的技术。通过改进的弹性毛细管缠结模型,合理化了使金属丝缠结最小化所需的临界张力。
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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Antitangling and manufacturable Fog Harps for high-efficiency water harvesting

Fog Harps harvest substantially more water than conventional mesh-based harvesters. However, to date, all large-scale Fog Harps have been impractically hand-wound at low wire tensions and suffer from elastocapillary wire tangling. Here, we develop large-scale and high-tension Fog Harps that are manufacturable and antitangling. These Fog Harps retain the record-setting fog harvesting efficiency ( η 17 $\eta \approx 17$ %) of their optimized scale-model counterparts, while uniquely enabling practical real-life implementation. Manufacturability was achieved by adapting the industrial process for making harp screens, a pre-existing technology used for screening solid materials. The critical tension required to minimize wire tangling was rationalized by an improved elastocapillary tangling model.

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Issue Information Front Cover, Volume 3, Number 4, October 2024 Inside Back Cover, Volume 3, Number 4, October 2024 Back Cover, Volume 3, Number 4, October 2024 Inside Front Cover, Volume 3, Number 4, October 2024
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