0.5μm和1.0μm栅极低噪声GaAs场效应管的可靠性

C. Huang, F. Kwan, S.Y. Wang, P. Galle, J. Barrera
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引用次数: 3

摘要

GaAs场效应管的可靠性是一个重要的问题,有许多变化模式可以被认为是失效。灾难性事件,使单元无法使用,各种直流和射频参数漂移,是一些相当明显的故障类型的例子。其他长期现象虽然不那么明显,但也可以被认为是潜在的失效机制。后一类中的两种现象是肖特基栅特性的变化和最终可能导致栅控制丧失的金属间反应。本文给出了这两个问题领域的结果。具体来说,对静电放电引起的肖特基栅反漏电流变化可能引起的可靠性问题进行了解释和解决。这些变化的程度各不相同,从仅可识别的电阻反向电流的产生到栅极金属,砷化镓沟道和源接触金属的灾难性爆发。其次,将描述一个非常稳定的Al - Au金属化系统,该系统允许出色的高温稳定性和低射频电阻连接,而不会发生有害的金属间反应。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reliability Aspects of 0.5μm and 1.0μm Gate Low Noise GaAs FETs
Reliability of GaAs FETs is an important concern and there are many change modes that can be considered failures. Catastrophic events, which make a unit unusable and the drift of various DC and RF parameters, are examples of some fairly obvious types of failures. Other long term phenomena, while not so obvious, can also be considered potential failure mechanisms. Two phenomena in this latter category are changes in Schottky gate characteristics and intermetallic reactions that can eventually cause loss of gate control. This paper presents results in both problem areas. Specifically, an explanation and solution will be given to the potential reliability problem of electrostatic discharge created changes in Schottky gate reverse leakage currents. These changes vary in degree from just discernable creation of a resistive reverse current to catastrophic eruption of gate metal, GaAs channel and source contact metal. Secondly, a very stable Al to Au metallization system will be described that allows excellent high temperature stability and low RF resistance connections without harmful intermetallic reactions.
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