Development of an Integrated CMOS-Microfluidics for Bioelectronic Nose

A. Kuznetsov, E. Kuznetsov, E. Rybachek, K. Puchnin, V. Grudtsov, A. Saurov
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Abstract

Integration of microfluidic systems within an integrated circuit is a promising approach for developing new generation of bioelectronic noses. In this paper, we present fabrication techniques for a microsystem consisting of an array of ion sensitive field-effect transistors in hydrophilic cell under a hydrophobic membrane. Sacrificial aluminum etching technique was used to form capillary microchannels, and self-assembled monolayers were used for achieving hydrophobic properties of the membrane and hydrophilic properties of the microchannels. The developed microsystem with membrane pore size 4 µm2 was shown to hold liquid, achieving stable air-liquid interface for extraction of molecules from gaseous phase.
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生物电子鼻集成cmos微流控技术的研究
在集成电路中集成微流控系统是开发新一代生物电子鼻的一种很有前途的方法。在本文中,我们提出了一种由离子敏感场效应晶体管阵列组成的微系统在疏水膜下的亲水细胞的制造技术。采用牺牲铝蚀刻技术形成毛细管微通道,利用自组装单层膜实现膜的疏水性和微通道的亲水性。所开发的微系统膜孔径为4µm2,可保持液体,实现稳定的气液界面,可从气相中提取分子。
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