投机模拟运行时环境中的自主电源管理

Stefano Conoci, Mauro Ianni, Romolo Marotta, Alessandro Pellegrini
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引用次数: 0

摘要

在向百亿亿级系统过渡的过程中,很明显,电源管理在支持底层硬件的可行利用和性能方面起着至关重要的作用。为了满足未来百亿亿次超级计算机施加的功率限制,将需要运行时环境强制执行自调优方案,以便在强加的功率上限下运行动态工作负载。文献结果表明,对于广泛的多线程应用程序,与仅单独使用其中一种机制的技术相比,调优核心的并行度和频率/电压可以更有效地利用预算。在本文中,我们探讨了将这些技术应用于基于推测性时间扭曲的模拟运行时环境的相关问题。我们讨论了两种对立的基于时间扭曲的模拟环境的差异如何影响得到的结果。我们的评估证实,通过适当分配电源预算可以显著提高性能。我们还确定了使这些形式的自调整更广泛适用的研究挑战。
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Autonomic Power Management in Speculative Simulation Runtime Environments
While transitioning to exascale systems, it has become clear that power management plays a fundamental role to support a viable utilization of the underlying hardware, also performance-wise. To meet power restrictions imposed by future exascale supercomputers, runtime environments will be required to enforce self-tuning schemes to run dynamic workloads under an imposed power cap. Literature results show that, for a wide class of multi-threaded applications, tuning both the degree of parallelism and frequency/voltage of cores allows a more effective use of the budget, compared to techniques that use only one of these mechanisms in isolation. In this paper, we explore the issues associated with applying these techniques on speculative Time-Warp based simulation runtime environments. We discuss how the differences in two antithetical Time Warp-based simulation environments impact the obtained results. Our assessment confirms that the performance gains achieved through a proper allocation of the power budget can be significant. We also identify the research challenges that would make these form of self-tuning more broadly applicable.
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