Laura Andrea Florez-Bedoya, Laura Estefanía Mora-Joaqui, B. Cruz-Muñoz, R. Dorantes-Rodríguez, Sebastián Ospina-Castro, Alexander Ríos-Gaviria
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The design focused on the deposition speed control for the functional equipment operations, whose operating principle is based on a PWM scheme, achieving an immersion/extraction speed parameter in ranges between 1.5 cm/s and 3.5 cm/s (with a resolution of ± 0.2 cm/s). The operation of the equipment and the reproducibility of the deposits were tested by studying the optical properties of CuCoMn coatings on glass. A substrate immersion/extraction speed of 1.5 cm/s and precursor agitation time (0.83 h - 0.98 h) were used, obtaining absorbances higher than 90%. 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引用次数: 0
摘要
我们介绍了基于溶胶/凝胶浸涂技术的薄膜沉积设备的设计、建造和实现,用于在室温和常压下控制沉积条件和工作环境下制备涂层。沉积系统包括一个304不锈钢结构和一个移动平台,该平台可容纳基材,并沿垂直轴以高达30厘米的沉积距离运输。考虑机械和电子设计,采用计算机辅助开发和尺寸验证(针对结构和运动传输系统),并使用Arduino平台对系统进行编程。设计重点是功能设备操作的沉积速度控制,其工作原理基于PWM方案,实现浸入/提取速度参数在1.5 cm/s到3.5 cm/s之间(分辨率为±0.2 cm/s)。通过研究CuCoMn涂层在玻璃上的光学性能,对设备的操作和镀层的重现性进行了测试。底物浸提速度为1.5 cm/s,前驱体搅拌时间为0.83 h ~ 0.98 h,吸光度高于90%。总之,实现的原型将使研究小组能够生产出比手工制作的质量更好的可复制薄膜,这可以以低成本生产,并提供设备可持续维护的可能性。
Implementation of an Automated Film Deposition Equipment under the sol/gel Dip-Coating Technique
We present the design, construction, and implementation of thin film deposition equipment based on the Sol/Gel dip-coating technique for the fabrication of coatings under controlled deposition conditions and working environment at ambient temperature and pressure. The deposition system includes a 304 stainless steel structure and a moving platform that holds the substrate and is transported along vertical axes at a deposition distance of up to 30 cm in height. The mechanical and electronic design was considered, using computer-aided development and dimensional validation (for the structure and the motion transmission system) and the programming of the system using the Arduino platform. The design focused on the deposition speed control for the functional equipment operations, whose operating principle is based on a PWM scheme, achieving an immersion/extraction speed parameter in ranges between 1.5 cm/s and 3.5 cm/s (with a resolution of ± 0.2 cm/s). The operation of the equipment and the reproducibility of the deposits were tested by studying the optical properties of CuCoMn coatings on glass. A substrate immersion/extraction speed of 1.5 cm/s and precursor agitation time (0.83 h - 0.98 h) were used, obtaining absorbances higher than 90%. In conclusion, the implemented prototype will allow the research group to produce reproducible thin films of better quality than those made manually, which can be produced at a low cost and offer the possibility of sustainable maintenance of the equipment.
期刊介绍:
Our journal''s main objective is to serve as a medium for the diffusion and divulgation of the articles and investigations in the engineering scientific and investigative fields. All the documents presented as result of an investigation will be received, as well as any review about engineering, this includes essays that might contribute to the academic and scientific discussion of any of the branches of engineering. Any contribution to the subject related to engineering development, ethics, values, or its relations with policies, culture, society and environmental fields are welcome. The publication frequency is semestral.