Gao Haoxiang, Zhang Fenghua, Tang Kangkang, Luo Xianyu, Pu Ziang, Zhao Jiuzhou, Jiao Zhiwei, Yang Weimin
College of Mechanical and Electrical Engineering, Beijing University of Chemical Technology, Beijing 100029, China.
Nanomaterials (Basel). 2023 Jun 5;13(11):1804. doi: 10.3390/nano13111804.
3D printing technology has been used to directly produce various actual products, ranging from engines and medicines to toys, especially due to its advantage in producing items of complicated, porous structures, which are inherently difficult to clean. Here, we apply micro-/nano-bubble technology to the removal of oil contaminants from 3D-printed polymeric products. Micro-/nano-bubbles show promise in the enhancement of cleaning performance with or without ultrasound, which is attributed to their large specific surface area enhancing the adhesion sites of contaminants, and their high Zeta potential which attracts contaminant particles. Additionally, bubbles produce tiny jets and shock waves at their rupture, driven by coupled ultrasound, which can remove sticky contaminants from 3D-printed products. As an effective, efficient, and environmentally friendly cleaning method, micro-/nano-bubbles can be used in a range of applications.
3D打印技术已被用于直接生产各种实际产品,从发动机、药品到玩具,特别是因为它在生产具有复杂多孔结构的物品方面具有优势,而这些物品本身就难以清洁。在此,我们将微/纳米气泡技术应用于3D打印聚合物产品的油污去除。微/纳米气泡在有或没有超声波的情况下都有望提高清洁性能,这归因于它们大的比表面积增加了污染物的附着位点,以及它们高的zeta电位吸引污染物颗粒。此外,在耦合超声波的驱动下,气泡在破裂时会产生微小的射流和冲击波,这可以去除3D打印产品上的粘性污染物。作为一种有效、高效且环保的清洁方法,微/纳米气泡可用于一系列应用中。