周期实时多核系统热感知设计的基本原理

Shi Sha, Ajinkya S. Bankar, Xiaokun Yang, Wujie Wen, Gang Quan
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引用次数: 3

摘要

随着单片晶体管数量呈指数级增长,散热问题已成为计算系统设计中一个迫切需要解决的问题。虽然已经有大量的方法和技术用于热感知设计优化,但在设计实时系统和需要强大异常保证的应用程序时,需要更严格和正式的热分析。本文通过分析证明了周期性实时系统的RC热模型、峰值温度识别和峰值温度降低的一系列基本性质和原理,这些性质和原理具有足够的通用性,可以应用于二维和三维多核平台。这些发现增强了在运行场景中最坏情况下的温度可预测性,并有助于制定更有效的热管理策略,这是热约束周期性实时系统设计的关键。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
On Fundamental Principles for Thermal-Aware Design on Periodic Real-Time Multi-Core Systems
With the exponential rise of the transistor count in one chip, the thermal problem has become a pressing issue in computing system design. While there have been extensive methods and techniques published for design optimization with thermal awareness, there is a need for more rigorous and formal thermal analysis in designing real-time systems and applications that demand a strong exception guarantee. In this article, we analytically prove a series of fundamental properties and principles concerning the RC thermal model, peak temperature identification, and peak temperature reduction for periodic real-time systems, which are general enough to be applied on 2D and 3D multi-core platforms. These findings enhance the worst-case temperature predictability in runtime scenarios, as well as help to develop more effective thermal management policy, which is key to thermal-constrained periodic real-time system design.
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