利用空间光调制器控制的局部电泳沉积辅助激光捕获的三维微加工

F. Iwata, Toshiki Matsuura
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引用次数: 0

摘要

我们描述了一种基于激光捕获辅助电泳沉积的新型微三维(3D)制造方法。该方法是激光捕获和电泳沉积相结合的方法。在胶体纳米颗粒溶液中,纳米颗粒聚集成聚焦在衬底上的激光光斑,然后通过施加电场将它们电泳沉积在衬底上。利用该方法,我们已经完成了微型3D结构的制造,如柱和螺旋,通过向下移动衬底,同时保持沉积。为了改进制作方法,我们在系统中引入了空间光调制器(SLM)。SLM可以同时形成多个激光光斑,制造多个柱。然而,在使用多个激光光斑加工多个微结构的情况下,由于多个激光光斑的光学干涉,也会出现意想不到的子光斑,从而导致加工质量的恶化。为了避免出现不需要的子光斑,提出了一种利用准多激光光斑的新方法。通过使用SLM短暂地切换单个点的位置,成功地制造了多个微结构,并抑制了不需要的子点。此外,通过在基底向下移动的同时以小幅度振荡光束光斑,我们成功地提高了制造的再现性。
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Three Dimensional Microfabrication Using Local Electrophoretic Deposition Assisted with Laser Trapping Controlled by a Spatial Light Modulator
We describe a novel micro three-dimensional (3D) fabrication method based on electrophoretic deposition assisted by laser trapping. This method is a combination of laser trapping and electrophoresis deposition. In a colloidal nanoparticle solution, the nanoparticles are gathered into a laser spot focused on a substrate, they were then electrophoretically deposited on the substrate by applying an electrical field. Using the method, we have performed fabrication of micro 3D structures such as pillars and spirals by moving the substrate downward while keeping the deposition. In this paper, to improve the fabrication method, we introduced a spatial light modulator (SLM) into our system. The SLM can form multiple laser spots simultaneously to fabricate multiple pillars. However, in the case of fabrication of multiple microstructures using the multiple laser spots, unintended sub-spots also appear due to optical interference of the multiple laser spots, which results in deterioration of the fabrication. Here, to avoid the appearance of the undesirable sub-spots, a novel method using quasi-multiple laser spots were proposed. By switching a position of a single spot briefly using the SLM, multiple microstructures were successfully fabricated with suppressing the undesirable sub-spots. Furthermore, by oscillating a beam spot with a small amplitude while moving the substrate downward, we successfully improved the reproducibility of the fabrication.
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Copyright Information Ferrofluid Levitated Micro/Milli-Robots Implementation Scheme of Orbital Refueling Using Microsate IIite Assembly of Cellular Microstructures into Lobule-Like 3D Microtissues Based on Microrobotic Manipulation* Research supported by the Beijing Natural Science Foundation under Grant 4164099and the National Natural Science Foundation of China under grants 61603044and 61520106011. Three Dimensional Microfabrication Using Local Electrophoretic Deposition Assisted with Laser Trapping Controlled by a Spatial Light Modulator
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