封装级3d打印直接喷射冲击冷却应用于高功率,大模具应用的演示

Tiwei Wei, H. Oprins, V. Cherman, Z. Yang, K. Rivera, G. van der Plas, B. Pawlak, L. England, E. Beyne, M. Baelmans
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引用次数: 6

摘要

这项工作首次提出了一种采用3D打印或增材制造制造的封装级裸模液体射流冲击3D聚合物微流控散热器,用于大模具尺寸和高功率应用。在芯片功率为285 W、冷却剂流速为3.25 LPM的情况下,该散热器的芯片温度提高了17.5°C,这表明3D打印可以设计出低成本、高效率的直接片上微流控散热器,其内部具有复杂的3D流形液体输送通道。测量结果表明,射流冲击冷却性能可以成功地描述使用单元格方法,允许一个容易缩放的热性能为任意尺寸的模具应用。1000h的长期热试验表明,冷却器材料具有恒定的热性能和无退化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Demonstration of Package Level 3D-printed Direct Jet Impingement Cooling applied to High power, Large Die Applications
This work presents, for the first time, a package- level, bare die liquid jet impingement 3D polymer microfluidics heatsink fabricated using 3D printing, or additive manufacturing for large die size and high-power applications. The heatsink achieves a chip temperature increase of 17.5°C at a chip power of 285 W for a coolant flow rate of 3.25 LPM, demonstrating that 3D printing enables the design for low-cost, high efficiency direct on-chip microfluidic heatsink with complex internal 3D manifold liquid delivery channels. The measurement results show that the jet impingement cooling performance can be successfully described using a unit cell approach, allowing an easy scaling of the thermal performance for arbitrary die size applications. Long term thermal tests of 1000h show a constant thermal performance and no degradation of the cooler material.
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