Microfluidic MEMS for semiconductor processing

A. Henning, J. Firch, James M. Harris, E. B. Dehan, Bradford A. Cozad, L. Christel, Y. Fathi, D. Hopkins, L. Lilly, Wendell Mcculley, W. Weber, M. Zdeblick
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引用次数: 21

Abstract

The advent of MEMS (microelectromechanical systems) will enable dramatic changes in MEMS-based devices offer opportunities to achieve higher with decreased size and increased reliability. In this work, we describe the achievement of several important devices for use in the semiconductor equipment industry. They include a low-flow mass flow controller, a high-precision pressure regulator, and an integrated gas panel. Compared to current technology, the devices are ultra-small in size, thus minimizing dead volumes and gas contact surface areas. With wettable surfaces comprised of ceramic and silicon (or, silicon coated with Si/sub 3/N/sub 4/ or SiC), they are resistant to corrosion, and generate virtually no particles. The devices are created from modular components. The science and technology of these components will be detailed. The modules examined are: normally-open proportional valves; normally-closed, low leak-rate shut-off valves; critical orifices (to extract information of flow rate); flow models (to extract flow rate from pressure and temperature information); silicon-based pressure sensors; and, the precision ceramic-based packages which integrate these modules into useful devices for semiconductor processing. The work finishes with a detailed description of the low-flow mass flow controller.
半导体加工用微流控MEMS
MEMS(微机电系统)的出现将使基于MEMS的器件发生巨大变化,为实现更小尺寸和更高可靠性提供了机会。在这项工作中,我们描述了在半导体设备工业中使用的几个重要器件的成就。它们包括低流量质量流量控制器,高精度压力调节器和集成气体面板。与目前的技术相比,该设备的尺寸非常小,从而最大限度地减少了死体积和气体接触表面积。由陶瓷和硅(或涂有Si/sub 3/N/sub 4/或SiC的硅)组成的可湿表面,它们耐腐蚀,并且几乎不产生颗粒。这些设备是由模块化组件创建的。本文将详细介绍这些组件的科学技术。检测的模块有:常开比例阀;常闭、低泄漏率截止阀;关键孔(提取流量信息);流量模型(从压力和温度信息中提取流量);硅基压力传感器;并且,基于精密陶瓷的封装将这些模块集成到半导体加工的有用设备中。最后对小流量质量流量控制器进行了详细的描述。
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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