石墨烯和用于热点冷却的少层石墨烯散热器的建模

Y. Ni, J. Ordonez-Miranda, Y. Chalopin, S. Volz
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引用次数: 6

摘要

通过计算机模拟研究了Ti/Pt/Au微加热器在嵌入式热测试芯片中的热传播。石墨烯被认为是集成在芯片中作为散热器,以利用其极高的导热性。采用有限元方法对经典热传导方程进行了数值求解。我们发现热点温度与施加的热流密度呈线性关系,石墨烯铺布可以有效地降低微加热器的温度。这些发现与实验测量结果吻合得很好。为了更好地理解这些现象背后的机制,绘制了器件表面的温度分布,并比较了有无石墨烯扩散剂的系统。这些结果为石墨烯基材料作为散热材料提供了更好的见解,并为帮助改善电子设备的散热提供了有用的信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modelling of graphene and few-layer graphene heat spreaders for hot-spot cooling
We studied the heat propagation in Ti/Pt/Au micro-heater embedded thermal testing chips by computer simulations. Graphene was considered to be incorporated within the chips as a heat spreader in order to utilize its extremely high thermal conductivity. The classical heat conduction equation was solved numerically using the finite element analysis method. We found a linear relation between the temperature of the hot spot and the imposed heat flux, and a graphene spreader could effectively decrease the temperature of the micro-heater. These findings are in satisfying agreement with experimental measurements. In order to better understand the mechanisms behind these phenomena, the temperature distribution along the device surface was plotted and compared for systems with and without a graphene spreader. These results provide a better insight of graphene-based materials as heat spreaders and yield useful information to help improving heat removal from electronic devices.
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