微全分析系统微流控元件的研制

T. Naito
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引用次数: 3

摘要

微流体装置能够减少样品消耗量,缩短分析时间,并使仪器小型化。微流体装置的许多应用不仅在化学分析中得到了发展,而且在医学诊断、食品和农业工业中也得到了发展。微流体装置中的电泳或色谱法提高了速度、再现性和分离分辨率。其中一些已经在一个小基板上与复杂的实验功能集成,其概念被称为微观总体分析系统。为了建立一个系统,在微流体通道中执行实验功能的微流体组件和支持微流体组件开发的新技术是必不可少的。在这篇综述中,通过硫醇-烯快速反应的三维(3D)制备、用喷墨喷射器的样品注射和基于电渗的分子检测是重点。3D制造实现了在没有特定设备的情况下传统制造方法无法制造的各种3D微观结构。利用喷墨技术进行样品注入,可以将微量样品溶液注入到多个微流体通道中的一些精确点上,从而实现快速、高精度的分析。基于电渗的分子检测表明有可能开发出一种新的便携式设备,而无需任何外围设备用于检测或预处理样品标记。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of Microfluidic Components for Micro Total Analysis Systems
Microfluidic device is capable of reducing amount of sample consumption, shortening the analysis time, and miniaturizing instruments. Many applications of microfluidic devices have been developed not only in chemical analysis but also in medical diagnosis, and the food and agricultural industries. Electrophoresis or chromatography in a microfluidic device has improved the speed, reproducibility and separation resolution. Some of them have been integrated with complex experimental functionality on a small substrate, of which concept is known as micro total analysis systems. To build up a system, microfluidic components that carry out an experimental functionality in a microfluidic channel and novel technology to support the developments of microfluidic components are indispensable. In this review, three-dimensional (3D) fabrication by thiol-ene quick reaction, sample injection with an inkjet ejector, and molecular detection based on electroosmosis are focused biefly. The 3D fabrication realizes to make various 3D microstructures that conventional fabrication method cannot make without specific equipment. The sample injection by using inkjet technology can apply tiny amount of sample solution into multiple microfluidic channel on some precise spots, which leads to rapid analysis with high accuracy. The electroosmosis-based molecular detection indicates a possibility to develop a new portable device without any peripherals for detection or pretreatment for specimen labeling.
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