VLSI应用中铝金属化失效的温度循环加速因子

C. Dunn, J. McPherson
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引用次数: 39

摘要

给出了VLSI应用中四种常见铝失效机制的低周疲劳数据;断裂的金属间键破坏,脱落的键破坏,剪切应力引起的金属移动和钝化,开裂和拉伸应力引起的金属缺口和空洞(应力迁移)。除拉应力致缺口和落穴外,在常用的加速温度循环范围内:0℃/125℃、-40℃/85℃、-40℃/140℃、-65℃/150℃,均存在均匀加速。温度循环对拉应力致缺口和落穴的加速不均匀;通过简单的高温储存可以更有效地加速。提出了基于Coffin-Manson定律的温度循环加速度因子模型。在计算加速因子时,只使用温度循环范围的问题被突出。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Temperature-cycling acceleration factors for aluminium metallization failure in VLSI applications
Low-cycle fatigue data for four common aluminium failure mechanisms in VLSI applications are presented; fractured intermetallic bond failure, chip-out bond failure, shear-stress-induced metal movement and passivation cracking and tensile-stress-induced metal notching and voiding (stress migration). Except for the tensile-stress-induced notching and voiding, uniform acceleration exists when commonly used accelerated temperature cycling ranges are compared: 0 degrees C/125 degrees C, -40 degrees C/85 degrees C, -40 degrees C/140 degrees C, and -65 degrees C/150 degrees C. Tensile-stress induced metal notching and voiding is not uniformly accelerated by temperature cycling; it is accelerated more effectively by simple elevated temperature storage. A temperature-cycling acceleration factor model, based on the Coffin-Manson law, is presented. The problem of using only the temperature cycling range when calculating the acceleration factor is highlighted.<>
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