Adaptive fault simulation on many-core microprocessor systems

M. Haghbayan, Sami Teravainen, A. Rahmani, P. Liljeberg, H. Tenhunen
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引用次数: 1

Abstract

Efficiency of Network-on-Chip based many-core microprocessors to implement parallel fault simulation methods for different circuit sizes is explored in this paper. We show that a naive and straightforward execution of fault simulation programs on such systems does not provide the maximum speedup due to severe bottlenecks in off-chip shared memory access at memory controllers. In order to exploit the available massive parallelism of homogenous many-core microprocessors, a runtime approach capable of adaptively balancing the load during the fault simulation process is proposed. We demonstrate the proposed adaptive fault simulation approach on a many-core platform, Intels Single-chip Cloud Computer showing up to 45X speedup compared to a serial fault simulation approach.
多核微处理器系统的自适应故障仿真
本文探讨了基于片上网络的多核微处理器在不同电路尺寸下实现并行故障仿真方法的效率。我们表明,由于内存控制器上的片外共享内存访问存在严重瓶颈,因此在此类系统上简单而直接地执行故障模拟程序并不能提供最大的加速。为了充分利用同质多核微处理器的海量并行性,提出了一种在故障仿真过程中自适应平衡负载的运行时方法。我们在多核平台上演示了所提出的自适应故障仿真方法,与串行故障仿真方法相比,英特尔单芯片云计算机显示了高达45倍的加速。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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