Electronic Packaging Materials for Extreme, Low Temperature, Fatigue Environments

A. Shapiro, C. Tudryn, D. Schatzel, S. Tseng
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引用次数: 12

Abstract

Electronic packaging technology has been developed to withstand extreme temperature fatigue conditions from - 120°C to + 85°C for over 1500 cycles. This temperature regime and number of thermal cycles exceeds typical military standard (MIL-STD) testing from - 55°C to + 125°C and approximately 100 cycles. Chip-on-board (COB) packaging was selected since it reduces mass (up to 98% savings) and increases functionality on a smaller surface area (as low as 40%) compared to standard surface mount packaging technology (SMT). Material combinations of different encapsulants, die attaches, and substrates for bare silicon die with 1 mil Au wire bonds were designed and continuously monitored in situ during thermal cycling. This paper will describe experimental and modeling results of surviving material combinations and key failures that occurred at various temperatures and cycle counts.
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用于极端、低温、疲劳环境的电子封装材料
电子封装技术已经发展到能够承受从- 120°C到+ 85°C的极端温度疲劳条件,超过1500次循环。这种温度状态和热循环次数超过了典型的军用标准(MIL-STD)测试,从- 55°C到+ 125°C,大约100个循环。之所以选择板上芯片(COB)封装,是因为与标准表面贴装封装技术(SMT)相比,它减少了质量(节省高达98%),并在更小的表面积(低至40%)上增加了功能。在热循环过程中,设计了不同的封装剂、模具附着物和裸硅模具衬底的材料组合,并对其进行了连续监测。本文将描述在不同温度和循环次数下发生的幸存材料组合和关键失效的实验和建模结果。
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来源期刊
IEEE Transactions on Advanced Packaging
IEEE Transactions on Advanced Packaging 工程技术-材料科学:综合
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