飞秒激光可控制液滴自输运的光滑液体注入表面

Chengjuan Yang, K. Yang, Zhen Yang, Minxia Li, Dawei Zhang
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引用次数: 0

摘要

光滑的液体注入微结构表面(SLIMS)可以显著降低液滴的粘附力,促进液滴的运动。然而,自输运距离仍然受到楔角和液滴体积的限制。本文将飞秒激光加工的v形棱镜微阵列(VPM)表面引入到SLIMS中,以控制液滴的自输运距离。利用VPM表面的定向润湿性,在液体体积和楔角一定的情况下,可以控制自输运距离。同时,研究了液滴在多生物激励表面上输运距离变化的机理。研究结果为液滴定向输运在工业和学术领域的应用提供了新的思路。
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Slippery Liquid-infused Surface with Controllable Droplet Self-transport by Femtosecond Laser
The slippery liquid-infused microstructure surface (SLIMS) could significantly reduce the adhesive force and facilitate the movement of droplet. However, the self-transport distance is still limited by the wedge angle and droplet volume. In this paper, the V-shaped prism microarray (VPM) surface processed by the femtosecond laser was introduced into the SLIMS to control the droplet self-transport distance. Benefited from the directional wettability of the VPM surface, the self-transport distance could be controlled in the case of fixed liquid volume and wedge angle. Meanwhile, the mechanism of droplet transport distance variation on the multi-bioinspired surface is also investigated. The results provide a new insight for precise liquid manipulation, which could promote droplet directional transport applications in both industrial and academic fields.
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