深度纳米级cmos技术的ic冷却分析与启示

Sheng-Chih Lin, R. Mahajan, V. De, K. Banerjee
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引用次数: 7

摘要

冷却芯片操作作为提高高端微处理器性能的实用技术正在受到认真的评估。本文首次全面分析了各种纳米级块体cmos和绝缘体上硅(SOI)技术的芯片冷却。与之前的所有工作不同,我们的分析采用了整体方法(结合器件,电路和系统级考虑因素),并且还考虑了功耗,工作频率和芯片温度之间的各种电热耦合。虽然冷却总是在器件或电路级别上获得性能增益,但它表明,系统级功率定义了温度限制,超过该温度限制,冷却带来的收益递减,相关成本可能令人望而却步。并给出了该温度极限的标度分析。此外,研究表明,芯片上的热梯度不能通过芯片整体冷却来缓解,局部冷却可以更有效地去除热点
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analysis and implications of ic cooling for deep nanometer scale cmos technologies
Cooled chip operation is being seriously evaluated as a practical technique for boosting the performance of high-end microprocessors. This paper presents, for the first time, a comprehensive analysis of chip cooling for various nanometer scale bulk-CMOS and silicon-on-insulator (SOI) technologies. Unlike all previous work, our analysis employs a holistic approach (combines device, circuit and system level considerations) and also takes various electrothermal couplings between power dissipation, operating frequency and die temperature into account. While cooling always gives performance gain at the device or circuit level, it is shown that system level power defines a temperature limit beyond which cooling gives diminishing returns and the associated cost may be prohibitive. A scaling analysis of this temperature limit is also presented. Furthermore, it is shown that on-chip thermal gradients cannot be mitigated by global chip cooling and that localized cooling can be more effective in removing hot-spots
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