Easily Adjusting Capillary Flow Rates on Nitrocellulose Membranes by a Household Laminator

Peiyi Chen, Zejingqiu Chen, Zitao Feng, Haonan Li, Muyang Zhang, Weijin Guo
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Abstract

Capillary flow rate control is interesting for biosensors based on nitrocellulose membranes. This paper introduces a method to control capillary flow rates on nitrocellulose membranes by simply pressing the nitrocellulose membranes using a household laminator. By applying pressure on nitrocellulose membranes, we can easily change the thickness of the nitrocellulose membrane and therefore change the pore size of the porous structure. We also notice that the pressure can break some nitrocellulose fibers. We investigate the influence by measuring the capillary flow rates on nitrocellulose membranes treated by different pressure, and also check their capacity of water absorption. We find that capillary flow rates decrease on nitrocellulose membranes with pressure treatment and the method can reduce the capillary flow rate by up to 42.3%. The water absorption capacity also decreases for nitrocellulose membranes with pressure treatment, and the maximum decrease is 44.6%. This method is promising in reducing the sample flow rates in biosensing devices made of nitrocellulose membranes.
很容易调整毛细管流速对硝化纤维素膜的家用层压机
毛细管流速控制是基于硝化纤维素膜的生物传感器的研究方向。本文介绍了一种用家用压片机对硝化棉膜进行简单按压,从而控制硝化棉膜上毛细流速的方法。通过对硝化纤维素膜施加压力,我们可以很容易地改变硝化纤维素膜的厚度,从而改变多孔结构的孔径。我们还注意到压力会使一些硝化纤维断裂。通过测定毛细管流速,考察了不同压力处理对硝化纤维素膜的吸水性能的影响。结果表明,压力处理能使硝化纤维素膜的毛细流速降低42.3%。加压处理后硝化棉膜的吸水能力也有所下降,最大降幅为44.6%。该方法在降低硝化纤维素膜生物传感装置的样品流速方面有很大的前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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