/spl μ /透明绝缘通道作为小型化学分离装置的元件

R. Schasfoort, J. Hendrikse, A. van den Berg
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引用次数: 4

摘要

目前,应用电渗透泵送或电泳分离的小型化装置大多是通过在玻璃基板上蚀刻小的绝缘通道来构建的,用于供应和分离。原则上,硅在惰性和设计灵活性方面是一种优越的建筑材料。然而,由于其半导体特性,在高压应用中的使用,如上面提到的是相当有限的。本文演示了使用/spl μ /透明绝缘通道(/spl μ /TIC)技术作为制造小型化分析分离装置的标准程序。这种技术可以制造出具有极薄、透明和绝缘壁的/spl μ /通道。概述了该技术的影响,展示了制造技术的优势,该技术与硅技术一样灵活,可用于制造/spl mu/TAS或“片上实验室”设备。重点介绍以下基本技术和控制参数。1. 高达100 /spl亩/米宽矩形通道2。boss和无泄漏连接到外部/spl μ /流体。3.入口/出口>100 /spl mu/m的网状结构。4. 电导率电极的实现6.薄壁散热性能好。通过径向电压控制电渗透流。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
/spl mu/transparent insulating channels as components for miniaturized chemical separation devices
Currently, miniaturized devices that apply electro osmotic pumping or electrophoretic separations are mostly constructed by etching small insulating channels for supply and separation on glass substrates. In principle, silicon is a superior construction material in terms of inertness and design flexibility. However, because of its semiconducting properties, the use in high voltage applications like the ones mentioned above is quite limited. In this paper, the use of /spl mu/Transparent Insulating Channel (/spl mu/TIC) technology is demonstrated as a standard procedure to manufacture miniaturized analytical separation devices. This technique, /spl mu/channels having extremely thin, transparent and insulating walls can be fabricated. An overview of the impact of this technology is given, showing the advantages of a fabrication technology that is as flexible as silicon technology for the fabrication of /spl mu/TAS or "lab on a chip" devices. The following basic technology and control parameters will be highlighted. 1. Up to 100 /spl mu/m wide rectangular channels 2. Bosses and leak-free connections to external /spl mu/ fluidics. 3. Web-like structures for inlets/outlets>100 /spl mu/m. 4. Implementation of conductivity electrodes 5. Good thermal dissipation properties of the thin walls 6. Control of the electro osmotic flow by a radial voltage.
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