通过激光烧蚀树脂/玻璃上的铝膜,制造出耐用的防雾微纳结构。

0 MATERIALS SCIENCE, MULTIDISCIPLINARY Discover nano Pub Date : 2024-03-26 DOI:10.1186/s11671-024-03993-y
Hongtao Cui, Chao Teng, Xinyi Xie, Xiaowen Qi
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引用次数: 0

摘要

本研究介绍了一种使用低成本激光标记对透明玻璃和树脂基底进行加工的技术,从而制造出具有优异防雾性能的微纳米结构表面。该方法包括在透明基底上沉积一层铝(Al)薄膜作为吸收层,然后进行快速激光标记烧蚀。这一烧蚀过程有效地去除了大部分铝膜,形成了层次分明的丘状空心微结构,铝基纳米粒子分散在整个表面。由此在树脂玻璃上形成的结构在实验室中存放 629 天后仍具有防雾性能,创下了最长的防雾记录。在最初的 9 个月里,它表现出了令人印象深刻的防雾性能,而且没有出现明显的降解,但之后就出现了大幅降解。此外,微纳米结构在降低表面接触角方面发挥了关键作用。接触角从对照树脂的 64° 显著减小到处理树脂的 6.9°,而从对照玻璃的 44° 减小到处理玻璃的 0°,这表明了超亲水性。这种 0° 的超亲水状态持续了 25 天。
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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Durable anti-fog micro-nano structures fabricated by laser ablation of aluminum film on resin/glass.

This study presents a technique for processing transparent glass and resin substrates using a low-cost laser marker to create a micro-nano-structured surface with exceptional anti-fog properties. The approach involved depositing an aluminum (Al) film on the transparent substrates as an absorbing layer, followed by rapid laser marker ablation. This ablation process effectively removed the majority of the Al film, resulting in the formation of hierarchical hillock-hollow micro-structures and the dispersion of Al-based nano-particles throughout the surface. The resulting structure on resin glasses demonstrated anti-fog performance even after 629 days storage in the laboratory, which marked the longest antifog record. It exhibited impressive antifog property without visible degradation for the first 9 months, which though degraded substantially afterwards. Furthermore, the micro-nano structure played a key role in reducing the contact angle of the surface. The contact angle experienced a significant reduction from a value of 64° for the control resin to 6.9° for the treated resin, while it was reduced from 44° for the control glass to 0° for the treated glass, indicating superhydrophilicity. This 0° superhydrophilic state persisted for a period of 25 days.

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