基于PEO近场静电纺丝的亚微流体通道制造

Q3 Engineering Micro and Nanosystems Pub Date : 2020-12-01 DOI:10.2174/1876402911666190916112452
Jiarong Zhang, Han Wang, Zhifeng Wang, Honghui Yao, Guojie Xu, Shengyong Yan, Jun Zeng, Xiangyou Zhu, Jiannan Deng, Shaomu Zhuo, Jinghua Zeng
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引用次数: 1

摘要

微流控通道在生物医学和微电子领域有着广泛的应用。然而,微流控通道器件的制造方法,如光刻、三维印刷和熔融电纺丝直接书写(MEDW),存在成本高、工艺复杂的问题,仍然不能稳定地达到亚微米尺度。为了提高微流控通道的分辨率,我们开发了一种简单、灵活的制备聚二甲基硅氧烷(PDMS)亚微流控通道的方法。它取决于以下步骤:(1)近场静电纺丝(NFES)直接写入聚乙烯氧化物(PEO)纳米纤维。(2)用PDMS封装纳米纤维。(3)利用PEO纳米纤维的倒置模式获得PDMS亚微流控通道。实验结果表明,在电极与集电极之间的距离为3.0 mm,电压为1.7 KV,集电极移动速度为80mm/s,乙醇与去离子水的混合溶液(1:1)条件下,可以稳定制备纳米纤维。最后,采用NFES和PDMS成型技术制备了PDMS亚微流控通道,通道直径为0.84±0.08 μm。结果验证了该方法的合理性。此外,该方法可以很容易地与各种用途的高分辨率通道集成,例如微电子,微机电系统和生物医学。
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Manufacturing of Submicrofluidic Channels Based on Near-field Electrospinning with PEO
Microfluidic channels have been widely applied in biomedicine and microelectronics. However, the manufacturing methods of microfluidic channel devices, such as photolithography, three-dimensional printing and Melt-electrospinning direct writing (MEDW), have the problem of high cost and complex process, which still can't reach a sub-micron scale stably. To improve the resolution of microfluidic channels, we developed a simple and flexible method to fabricate polydimethylsiloxane (PDMS) submicrofluidic channels. It depends on the following steps: (1) Direct Writing Polyethylene oxide (PEO) nanofiber by Near-field Electrospinning (NFES). (2) Packaging the nanofiber with PDMS. (3) Obtaining the PDMS submicrofluidic channel by inverted mode of PEO nanofiber. According to the result of the experiment, nanofiber can be stably prepared under the following conditions, the electrode-to-collector distance of 3.0 mm, the voltage of 1.7 KV, the collector moving speed of 80mm/s and the mixed solutions of ethanol and deionized water (1:1). Finally, the PDMS submicrofluidic channel was manufactured by NFES and PDMS molding technique, and the diameter of the channel was 0.84±0.08 μm. The result verified the rationality of that method. In addition, the method can be easily integrated with high resolution channels for various usages, such as microelectronics, micro electro mechanical systems, and biomedical.
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来源期刊
Micro and Nanosystems
Micro and Nanosystems Engineering-Building and Construction
CiteScore
1.60
自引率
0.00%
发文量
50
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