Accelerated stress testing methodology to risk assess silicon-package thermomechanical failure modes resulting from moisture exposure under use condition

S. Rangaraj, Daeil Kwon, M. Pei, J. Hicks, G. Leatherman, A. Lucero, T. Wilson, S. Streit, Jun He
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引用次数: 10

Abstract

IC components are exposed to moisture and thermal cycles during chip-package-board assembly and in their end use conditions. Moisture exposure influences the mechanical integrity of silicon backend dielectrics, assembly/packaging materials and packages. Reliability performance under accelerated stresses that simulate use conditions are often a critical factor in choice of materials, processing options and design rules. A complete assessment of the cumulative environmental exposure from chip-package assembly, shipment/storage, board system assembly, through end-customer use is required to guarantee product performance and reliability. This paper will detail these end user environments and use failure mode/mechanism specific acceleration models to develop accurate accelerated life testing plans and requirements. These requirements will then be compared to JEDEC standards based requirements and a need for re-calibration of these standards to more appropriate temperatures and stress durations will be highlighted.
用于评估在使用条件下因受潮而导致的硅封装热机械失效模式风险的加速应力测试方法
在芯片封装板组装和最终使用条件下,IC组件暴露在湿气和热循环中。水分暴露会影响硅后端电介质、组装/封装材料和封装的机械完整性。在模拟使用条件下加速应力下的可靠性性能通常是选择材料、加工方案和设计规则的关键因素。为了保证产品的性能和可靠性,需要对从芯片封装组装、运输/存储、电路板系统组装到最终客户使用的累积环境暴露进行全面评估。本文将详细介绍这些最终用户环境,并使用失效模式/机制特定的加速模型来制定准确的加速寿命测试计划和要求。然后将这些要求与基于JEDEC标准的要求进行比较,并强调需要将这些标准重新校准到更合适的温度和应力持续时间。
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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