集成微通道冷却的3d集成电路热建模

H. Mizunuma, Chia-Lin Yang, Yi-Chang Lu
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引用次数: 56

摘要

集成微通道液冷技术被认为是一种可行的解决方案,可以缓解3D堆叠集成电路带来的日益增加的热应力。由于其复杂的热尾迹效应,即流动中热源下游的局部温度尾迹现象,微通道冷却的热建模具有挑战性。针对集成微通道三维集成电路,提出了一种快速准确的热尾迹感知热模型。验证结果表明,与商业数值模拟工具相比,该热模型的速度提高了400倍以上,误差仅为2.0%。我们还演示了在集成电路放置阶段使用所提出的热模型进行热优化。我们发现,由于热尾迹效应,瓷砖沿着流动方向按功率大小递减排列。我们还发现,热尾迹建模对于生成集成微通道冷却3D IC的热感知放置至关重要。根据我们的实验,它可能导致高达25°C的峰值温差。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermal modeling for 3D-ICs with integrated microchannel cooling
Integrated microchannel liquid-cooling technology is envisioned as a viable solution to alleviate an increasing thermal stress imposed by 3D stacked ICs. Thermal modeling for microchannel cooling is challenging due to its complicated thermal-wake effect, a localized temperature wake phenomenon downstream of a heated source in the flow. This paper presents a fast and accurate thermal-wake aware thermal model for integrated microchannel 3D ICs. Validation results show the proposed thermal model achieves more than 400× speed up and only 2.0% error in comparison with a commercial numerical simulation tool. We also demonstrate the use of the proposed thermal model for thermal optimization during the IC placement stage. We find that due to the thermal-wake effect, tiles are placed in the descending order of power magnitude along the flow direction. We also find that modeling thermal-wakes is critical for generating a thermal-aware placement for integrated microchannel-cooled 3D IC. It could result in up to 25°C peak temperature difference according to our experiments.
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CiteScore
4.60
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