This process generates superhydrophobic glass surfaces with high water contact angles, highlighting potential applications in various fields.
Improved methods for generating superhydrophobic glass surfaces are needed to advance diverse industrial, medical, and consumer applications. Here we report a simple, robust, and scalable process for producing superhydrophobic glass surfaces with hierarchical topography that results in exceptionally high water contact angles. The two-step process combines micro powder blasting to generate micrometer-scale surface texture on a glass surface, followed by the formation of a dense network of nanometer-scale silicone filaments through liquid-phase chemical reaction with methyltrichlorosilane. The combination of the microscale glass surface and low surface energy silicone nanofilaments reliably yields superhydrophobic surfaces with sessile water contact angles approaching 180°. The reliable and low-cost process does not require surface activation prior to nanofilament growth and can be applied to glass or other silica substrates of arbitrary size and shape without the need for a clean room facility or complex infrastructure while yielding fully nonwetting surfaces.
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Pacheco et al. (2025) studied this question.
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