未来多核架构中的热点和核对核热耦合

M. Janicki, J. Collet, A. Louri, A. Napieralski
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引用次数: 28

摘要

本文研究了随着CMOS技术从65纳米特征尺寸扩展到15纳米,未来多核架构中的热点和热耦合问题。我们证明,随着技术扩展到更小的特征尺寸,相邻内核之间的热耦合将显着增加。模拟研究采用解析格林函数法求解热方程。我们的模拟表明,在15nm特征尺寸下,在运行100 ms后,热耦合将从20%增加到42%,在稳态状态下甚至可能达到65%。随着技术的不断缩小,这一发现揭示了未来多核架构设计面临的一个主要挑战。这将需要一种全面的方法来设计未来的多核架构,包括低功耗计算、热管理技术和工作负载分配。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hot spots and core-to-core thermal coupling in future multi-core architectures
This paper studies hot spot and thermal coupling problems in future multicore architectures as CMOS technology scales from 65 nm feature size to 15 nm. We demonstrate that the thermal coupling between neighboring cores will dramatically increase as the technology scales to smaller feature sizes. The simulation studies were based on solving the heat equation using the analytical Green's function method. Our simulations indicate that the thermal coupling in the 15 nm feature size just after 100 ms of operation will increase from 20% to 42% and in the steady state might reach even 65%. This finding uncovers a major challenge for the design of future multi-core architectures as the technology keeps scaling down. This will require a holistic approach to the design of future multi-core architectures encompassing low power computing, thermal management technologies and workload distribution.
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