构建弹性科学应用:基于CLAMR流体力学小程序的软误差和瞬态误差容限影响的弹性分析

Qiang Guan, Nathan Debardeleben, Brian Atkinson, R. Robey, William M. Jones
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引用次数: 14

摘要

在本文中,我们提出了软误差对高性能计算(HPC)的流体力学小应用程序CLAMR的影响的弹性分析。利用质量守恒定律,设计了一种故障检测机制和检查点/重启容错方法,增强了CLAMR的弹性。总的来说,我们的方法可以检测到高达88.3%的故障,这些故障会传播到SDC或崩溃,而最佳配置的开销最小(小于1%)。我们证明了CLAMR的容错取决于何时将故障注入到模拟中,并且我们还评估了检测和检查点的频率对性能的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Towards Building Resilient Scientific Applications: Resilience Analysis on the Impact of Soft Error and Transient Error Tolerance with the CLAMR Hydrodynamics Mini-App
In this paper, we present a resilience analysis of the impact of soft errors on CLAMR, a hydrodynamics miniapp for high performance computing (HPC). Leveraging the conservation of mass law, we design a fault detection mechanism and checkpoint/restart fault tolerance approach to enhance the resilience of CLAMR. Overall, our approach can detect up to 88.3% of faults that propagate into SDC or crashes with minimal (less than 1%) overhead for the optimal configuration. We show that CLAMR's fault-tolerance depends on when a fault is injected into the simulation and we also evaluate the frequency of detection and checkpointing on performance.
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