Fabrication Method for Paper Microfluidics Utilizing 3D Printing and PDMS Stamps

R. Montgomery, B. C. Hollins
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引用次数: 5

Abstract

Paper microfluidics is an emerging technology that offers a simple and inexpensive alternative to traditional microfluidics. Paper is an attractive medium for microfluidic devices because of its inherent hydrophilicity and low cost. Hydrophobic materials including wax and photoresist are used to pattern the paper. The most common method for making paper microfluidic analytical devices (μPAD) is wax printing, however, this method requires an expensive and specialized printer that is limited to printing documents and channel designs. Our method uses inexpensive materials and tools accessible to most research labs in the US. We utilize 3D printers, a common tool available in many universities because of their versatility. Poly(dimethylsiloxane) (PDMS) wax stamps are used to deposit wax onto paper, forming microfluidic channels. The PDMS stamps are produced with ABS 3D printed molds designed in CAD software. A PDMS stamp is dipped into melted wax and then pressed onto paper much like the process of using a rubber stamp and ink. Once the wax is deposited, the paper is heated, letting the wax penetrate the paper and form hydrophilic channels. This rapid and simple procedure allows researchers to easily produce μPADs with the flexibility of CAD software and 3D printers.
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利用3D打印和PDMS印章的纸微流体制造方法
纸微流控技术是一项新兴的技术,它提供了一种简单而廉价的替代传统微流控技术。纸由于其固有的亲水性和低廉的成本而成为微流控器件的理想介质。疏水性材料包括蜡和光刻胶用于纸张的图案。制作纸微流体分析装置(μPAD)的最常见方法是蜡打印,然而,这种方法需要昂贵的专用打印机,并且仅限于打印文件和通道设计。我们的方法使用美国大多数研究实验室都能使用的廉价材料和工具。我们使用3D打印机,这是许多大学都可以使用的一种常见工具,因为它的多功能性。聚(二甲基硅氧烷)(PDMS)蜡印章用于沉积蜡到纸上,形成微流体通道。PDMS邮票是用CAD软件设计的ABS 3D打印模具生产的。PDMS图章浸在熔化的蜡中,然后压在纸上,就像使用橡皮图章和墨水一样。一旦蜡沉积下来,纸张就会被加热,让蜡渗入纸张,形成亲水通道。这种快速而简单的程序使研究人员能够利用CAD软件和3D打印机的灵活性轻松地生产μ pad。
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