浸入式电脑板的案例

M. Koibuchi, I. Fujiwara, Naoya Niwa, Tomohiro Totoki, S. Hirasawa
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引用次数: 0

摘要

高功率处理器的一个关键问题是散热,它限制了芯片的功率,从而限制了芯片的工作频率,以免超过某个温度阈值。特别是,3d芯片集成将进一步提高功率密度,因此需要更高效的冷却技术。虽然空气、氟化物和矿物油传统上被用作冷却剂,但在本研究中,由于其优越的导热性,我们建议直接使用自来水或天然水。我们已经开发了“水中计算机”的原型,它依赖于一个聚对二甲苯薄膜绝缘涂层。我们的原型可以通过抽取和排出天然水来支持直接浸入式冷却,而现有的冷却需要二次冷却剂(例如寒冷气候下的外部空气)来冷却接触芯片的主冷却剂。我们的原型成功地将普通处理器芯片的芯片温度降低了20度。我们的分析结果表明,水冷却提高了芯片的可接受功率密度,从而实现了更高的芯片工作频率。通过全系统仿真,我们的结果表明,在NAS并行基准测试中,浸入式芯片多处理器的执行时间分别比水管冷却芯片和油浸芯片高出14%和4.5%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Case for Water-Immersion Computer Boards
A key concern for a high-power processor is heat dissipation, which limits the power, and thus the operating frequencies, of chips so as not to exceed some temperature threshold. In particular, 3-D chip integration will further increase power density, thus requiring more efficient cooling technology. While air, fluorinert and mineral oil have been traditionally used as coolants, in this study, we propose to directly use tap or natural water due to its superior thermal conductivity. We have developed the "in-water computer" prototypes that rely on a parylene film insulation coating. Our prototypes can support direct water-immersion cooling by taking and draining natural water, while existing cooling requires the secondary coolant (e.g. outside air in cold climates) for cooling the primary coolants that contact chips. Our prototypes successfully reduce by 20 degrees the chip temperature of commodity processor chips. Our analysis results show that the in-water cooling increases the acceptable amount of power density of chips, thus achieving higher operating frequencies of chips. Through a full-system simulation, our results show that the water-immersion chip multiprocessors outperform the counterpart water-pipe cooled and oil-immersion chips by up to 14% and 4.5%, respectively, in terms of execution times of NAS Parallel Benchmarks.
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