用于单片集成电路的新型碳化硅mosfet

R. Siergiej, A. Agarwal, A. Burk, R. C. Clarke, H. Hobgood, P. McMullin, P. A. Orphanos, S. Sriram, T.J. Smith, C. Brandt
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引用次数: 4

摘要

碳化硅具有高饱和电子速度、高导热性和高击穿场强等特点,非常适合用于高频功率器件。虽然碳化硅器件研究的大部分重点是展示高频MESFET晶体管,但我们描述了一种具有卓越驱动,增益和高温性能的碳化硅MOSFET。此外,这些MOSFET已在演示电路中配置,揭示了第一个碳化硅单片集成电路。以直径为1英寸的6H型碳化硅晶圆为原料。采用化学气相沉积法生长出适当掺杂的nand n+外延层。采用反应离子刻蚀法对器件进行台面分离。栅极氧化物是用热氧化法生长的。漏极和源极的接点用镍制成,用RTA烧结。采用电子束直写光刻技术对栅极进行了精确定位和尺寸控制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Novel silicon carbide mosfet's for monolithic integrated circuits
Silicon carbide is well suited for high frequency power devices due to its high saturated electron velocity, high thermal conductivity, and high-breakdown field strength. While much of the focus of silicon carbide device research has been to demonstrate high frequency MESFET transistors, we describe a silicon carbide MOSFET with superior drive, gain, and high temperature performance. In addition, these MOSFET's have been configured in demonstration circuits revealing the first silicon carbide monolithic integrated circuits. One inch diameter, 6H p-type silicon carbide wafers were used as the starting material. Appropriately doped nand n+ epitaxial layers were grown by the chemical vapor deposition pmcess. The devices were mesa isolated using reactive ion etching. The gate oxide was grown with a thermal oxidation. Contacts to the drain and source were made with nickel and sintered using RTA. Electron beam direct write lithography was used to define the gates to obtain precise alignment and dimensional control.
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