A Hydrophobic Structures Manufacturing Method Based on Laser-assisted Electrochemical Deposition

Z. Zou, Jinkai Xu, Wanfei Ren
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Abstract

Re-entrant structures fabricated on the metal surface have a significant effect on the surface properties of metallic materials. It has attracted more and more attention due to its hydrophobicity, sound absorption, and anti-reflection property. This study proposed a method based on laser-assisted electrochemical deposition. First, microcolumn array substrates were prepared by laser etching. The substrate was prepared by laser etching, and subsequently the micro re-entrant structures were manufactured via localized electrodeposition under the tip effect. The volume deposition rate can reach $924.8\ \mu\mathrm{m}3/\mathrm{s}$, and the static structure hydrophobic angle was 133° after electrochemical deposition, which is 18% higher than that after laser etching. It must be a new method and a new way to fabricate re-entrant structures on the metal substrate.
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基于激光辅助电化学沉积的疏水结构制造方法
金属表面制备的可重入结构对金属材料的表面性能有重要影响。由于它的疏水性、吸声性和抗反射性,越来越受到人们的关注。本研究提出了一种基于激光辅助的电化学沉积方法。首先,采用激光刻蚀法制备微柱阵列衬底。采用激光刻蚀法制备基底,在尖端效应下通过局部电沉积法制备微重入结构。体积沉积速率可达$924.8\ \mu\mathrm{m}3/\mathrm{s}$,电化学沉积后的静态结构疏水角为133°,比激光刻蚀后提高了18%。在金属基板上制造可重入结构肯定是一种新方法和新途径。
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