新型含纳米添加剂热界面的对比分析

P. Matkowski, Tomasz Fałt, A. Moscicki
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引用次数: 3

摘要

如今,基于高效可靠热界面的被动冷却开始在现代消费电子产品中发挥主导作用。器件变得更小、更薄、更强大,而半导体成为更高通量热密度的来源。为了减少半导体结和散热器之间的热阻,半导体结构保持未封装,即倒装芯片结构。在这种溶液的情况下,半导体模具与散热器(即金属散热器的表面)直接接触。为了减小接触面的热阻,通常采用热界面材料(TIM)。TIM应形成低热阻接触,并确保其热机械性能长期稳定的互连。在研究的框架内,比较和评估了三种新型烧结纳米银浆料和一种市售导热胶粘剂作为潜在的TIMs。对功率晶体管和铜衬底之间形成的热界面的结构(x射线计算机断层扫描)和散热性能(红外热成像)进行了评估。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Comparative analysis of novel thermal interface containing nano additives
Nowadays a passive cooling based on efficient reliable thermal interfaces begins to play a dominant role in modern consumer electronics. The devices become smaller, thinner and more powerful while semiconductors become the source of higher flux heat density. In order to reduce thermal resistance between a semiconductor junction and a heat spreader, semiconductor structures remain unpackaged i.e. flip-chip structures. In the case of such solution semiconductor dies have a direct contact with a heat spreader (i.e. surface of metal radiators). In order to decrease thermal resistance of the contact some Thermal Interface Material (TIM) is usually applied. A TIM should form a low thermal resistance contact and ensure a long term stable interconnection in respect of its thermo-mechanical properties. Within the frame of the study three novel sintered nano silver pastes and one commercially available thermally conductive adhesive were compared and evaluated as potential TIMs. Formed thermal interfaces between power transistors and copper substrates were assessed in respect of their structure (X-Ray computed tomography) and heat dissipation performance (IR thermography).
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