High performance low noise FETs operating from X-band through Ka-band

H. Yamasaki, G. W. Keithley
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引用次数: 6

Abstract

Electron beam defined 0.5 µ gate low noise FETs have been made using various types of GaAs channel layers in order to correlate the method of material preparation with device performance in the frequency range between 12 GHz and 30 GHz. The channel layers were made by vapor phase epitaxy (VPE), ion implanted liquid phase epitaxy (LPE) and direct ion implantation into boat grown (HB) Cr-doped and liquid encapsulated Czochralski (LEC) undoped substrates. The devices, which have a gate width of 300 µm, have demonstrated excellent high gain and low noise performance over a wide range of frequencies from 12 GHz through 30 GHz. Device fabricated on VPE delivered 6.2 dB gain across a 2.5 GHz bandwidth at 30 GHz. The latter result was obtained from a single stage 30 GHz Waveguide/Microstrip amplifier, This amplifier, although not optimized for noise, has demonstrated less than a 5 dB noise figure across its bandwidth, In this paper we will discuss the state-of-the-art high frequency device performance and the device characterization results as related to the method of channel layer fabrication.
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从x波段到ka波段工作的高性能低噪声场效应管
电子束定义的0.5µ栅极低噪声场效应管已经使用各种类型的GaAs通道层制成,以便在12 GHz和30 GHz之间的频率范围内将材料制备方法与器件性能相关联。通过气相外延(VPE)、离子注入液相外延(LPE)和直接离子注入到船形生长(HB)掺杂和液体封装的chzochralski (LEC)未掺杂衬底中制备通道层。该器件栅极宽度为300µm,在12 GHz至30 GHz的宽频率范围内表现出优异的高增益和低噪声性能。在VPE上制造的器件在30 GHz的2.5 GHz带宽上提供6.2 dB增益。后一种结果是通过单级30ghz波导/微带放大器获得的,该放大器虽然没有优化噪声,但在其带宽上显示的噪声值小于5 dB。在本文中,我们将讨论最先进的高频器件性能和与通道层制造方法相关的器件表征结果。
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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