下一代高热TIM材料的装配和可靠性挑战

Chi-An Pan, C. Yeh, Wei-Chun Qiu, Rong-Zheng Lin, Liang-Yih Hung, Kong-Toon Ng, C. F. Lin, C. Chung, D. Jiang, C. Hsiao
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引用次数: 9

摘要

高密度电子器件、通信卫星、先进飞机、网络服务器和电信设备等现代电子元件要求高功耗和高输入/输出(IO)密度。随着高功率器件功耗和功率密度的不断增加,电子封装的散热面临挑战。在热源表面与散热模块之间采用具有优良导热系数的热界面材料。这是为了有效地从热源散发热量。组装器件的热性能成为电子封装中最重要的质量因素之一。因此,除了热性能外,还要求TIM具有良好的机械强度。为了满足现代电子器件对更高的热性能和可靠性强度的需求,业界领先的材料供应商提出了各种新型TIM材料。用于此目的的一些领先的新型TIM材料是石墨基和金属基材料,其导热性可能高于环氧基TIM材料。在本文中,我们将比较新的石墨基和金属基TIM材料与现有的环氧基TIM材料,并将讨论这些新TIM材料的各种组装挑战和可靠性性能。与商用TIM相比,石墨基TIM提供垂直方向的热传导路径,金属基TIM通过烧结在纳米颗粒金属中形成热传导路径。金属基TIM材料的结温(Tj)比环氧基材料降低了5℃。此外,通过扫描声断层扫描(SAT)后可靠性测试验证了TIM覆盖范围。此外,本文还将进行热模拟。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Assembly and Reliability Challenges for Next Generation High Thermal TIM Materials
High power consumption & high input/out (IO) density are requested by modem electronic components such as high-density electronics, communication satellites, advanced aircraft, networking server and telecommunication devices. Challenges in the heat dissipation of an electronic package arise from the continued increase in power dissipation and power density of higher-power devices. A thermal interface material (TIM) with excellent heat conduction coefficient is applied between the heat source surface and the heat-spreading module. This is to efficiently dissipate heat from the heat source. Thermal performance of an assembled device becomes one of the most important quality factors in electronic packaging. Therefore, beside the thermal properties, a good mechanical strength of TIM is required. In order to meet demands for higher thermal performance and reliability strength needs in modem electronic devices, various new TIM materials were proposed by industry leading material suppliers. Some of the leading new TIM materials used for this purpose are graphite based and metal based materials where thermal conductivity could be higher than epoxy based TIM materials. In this paper, we will compare new graphite based and metal based TIM materials with existing epoxy based TIM materials and will discuss the various assembly challenges and reliability performance of these new TIM materials. Compare to commercial TIM, the graphite based TIM provide a heat conduction path in a direction perpendicular, metal based TIM is disposed in the Nano-particle metal by sintering to consist of heat conduction path. The junction temperature (Tj) of metal based TIM material shows 5 degrees C decreased than epoxy based material. Also, TIM coverage has been verified via scanning acoustic tomography (SAT) post reliability testing. Moreover, thermal simulations will be conducted and presented in this paper.
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