材料科学
臭氧
等离子体
纳米颗粒
沉积(地质)
钻石
化学工程
纳米技术
复合材料
气象学
沉积物
量子力学
生物
物理
工程类
古生物学
作者
Pieter Verding,Rani Mary Joy,Dieter Reenaers,Rachith Shanivarasanthe Nithyananda Kumar,Rozita Rouzbahani,Ewoud Jeunen,S. P. Thomas,Derese Desta,H.‐G. Boyen,Paulius Pobedinskas,Ken Haenen,Wim Deferme
标识
DOI:10.1021/acsami.3c14014
摘要
Surface treatment is critical for homogeneous coating over a large area and high-resolution patterning of nanodiamond (ND) particles. To optimize the interaction between the surface of a substrate and the colloid of ND particles, it is essential to remove hydrocarbon contamination by surface treatment and to increase the surface energy of the substrate, hence improving the diamond film homogeneity upon its deposition. However, the impact of substrate surface treatment on the properties of coatings and patterns is not fully understood. This study explores the impact of UV–ozone, O2 plasma, and CF4 plasma treatments on the wetting properties of the fused silica glass substrate surface. We identify the optimal time interval between the treatment and subsequent ND coating/patterning processes, which were conducted using inkjet printing and ultrasonic spray coating techniques. Our results showed that UV–ozone and O2 plasma resulted in hydrophilic surfaces, while CF4 plasma treatment resulted in hydrophobic surfaces. We demonstrate the use of CF4 plasma treatment before inkjet printing to generate high-resolution patterns with dots as small as 30 μm in diameter. Ultrasonic spray coating showed homogeneous coatings after using UV–ozone and O2 plasma treatment. The findings of this study provide valuable insights into the hydrocarbon airborne contamination on cleaned surfaces over time even in clean-room environments and have a notable impact on the performance of liquid coatings and patterns. We highlight the importance of timing between the surface treatment and printing in achieving high resolution or homogeneity.
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