流体自组装制备充液密封MEMS胶囊

M. Mastrangeli, L. Jacot-Descombes, M. Gullo, J. Brugger
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引用次数: 8

摘要

提出了一种利用流体自组装将功能液体封装到密封的MEMS胶囊中的新方法。200 μm SU-8货体的自组装和皮升液体共封装是由整体流体阻力和近程毛细力共同驱动的。后者是由可光聚合粘合剂在胶囊边缘的局部表面选择性沉淀引起的。装配成品率达到50%以上,并可通过优化搅拌和形状匹配来提高成品率。该方法具有大规模并行性、可扩展性和可兼容批量制造的特点。它可以解决各种应用,包括分布式MEMS,细胞封装和药物输送。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Liquid-filled sealed MEMS capsules fabricated by fluidic self-assembly
We present a new method to encapsulate functional liquids into sealed MEMS capsules by fluidic self-assembly. Self-assembly of 200 μm SU-8 cargos and picoliter liquid co-encapsulation are driven by the interplay of global fluidic drag and short-range capillary forces. The latter ensues from the localized surface-selective precipitation of a photopolymerizable adhesive onto the capsules' rim. Assembly yield higher than 50% is achieved, and can be improved by optimized agitation and shape matching. The method is massively parallel, scalable and compatible with batch MEMS fabrication. It can address a variety of applications, including distributed MEMS, cell encapsulation and drug delivery.
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