探索NoC设计优化的循迹驱动性能预测方法

Naoya Niwa, Tomohiro Totoki, Hiroki Matsutani, M. Koibuchi, H. Amano
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引用次数: 1

摘要

基于cpu的芯片多处理器(CMP)的性能预测是设计的主要关注点之一。通常,在计算机系统的性能预测中,存在准确性和时间开销之间的权衡。特别是,当使用周期精确的全系统仿真(如gem5)时,时间开销与内核数量成正比或成指数。在本研究中,我们提出了一种准确且可扩展的方法来预测设计NoC参数对其性能的影响。我们的方法基于使用全连接NoC的全系统模拟的一次性执行统计数据,计算使用目标NoC时的执行周期数。为了评估准确性和执行时间开销,我们使用了随机生成具有3D网格拓扑NoC的处理器分配的情况。估计周期的平均绝对百分比误差约为4.7%,最大绝对百分比误差约为8.5%。
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An Trace-Driven Performance Prediction Method for Exploring NoC Design Optimization
The performance prediction for a NoC-based Chip Multi-Processor (CMP) is one of the main design concerns. Generally, there is a trade-off between accuracy and time overhead on the performance prediction of computer systems. In particular, the time overhead is proportional or exponential to the number of cores when using a cycle-accurate full-system simulation, such as gem5. In this study, we propose an accurate and scalable method to predict the influence of design NoC parameters on its performance. Our method counts the number of execution cycles when employing the target NoC based on the statistics of one-time execution of a full-system simulation using a fully-connected NoC. To evaluate the accuracy and execution time overhead, we use the case that randomly generates allocations of processors with 3D mesh topology NoC. Its Mean Absolute Percentage Error of the estimated cycles is about 4.7%, and the Maximum Absolute Percentage Error is about 8.5%.
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