以数据为中心的教堂项目性能测量技术

Hui Zhang, J. Hollingsworth
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引用次数: 7

摘要

Chapel是一种新兴的PGAS(分区全局地址空间)语言,其设计目标是使并行编程更高效,更易于访问。迄今为止,实现工作主要集中在正确性而不是性能上。我们提出了一种用于Chapel的性能测量技术,该思想也适用于其他PGAS模型。我们的工具的独特之处在于,它将性能统计信息不与代码区域(函数)关联,而是与源代码中的变量(包括堆分配、静态和局部变量)关联。与以代码为中心的方法不同,这种以数据为中心的分析能力提供了新的优化机会,有助于解决数据局部性问题。本文以三个基准介绍了我们的思路和实现方法。我们还包括一个案例研究,该案例研究基于来自我们工具的信息来优化基准测试。优化后的版本通过对源代码的简单修改,将LULESH的性能提高了1.4倍,MiniMD的性能提高了2.3倍,CLOMP的性能提高了2.1倍。
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Data Centric Performance Measurement Techniques for Chapel Programs
Chapel is an emerging PGAS (Partitioned Global Address Space) language whose design goal is to make parallel programming more productive and generally accessible. To date, the implementation effort has focused primarily on correctness over performance. We present a performance measurement technique for Chapel and the idea is also applicable to other PGAS models. The unique feature of our tool is that it associates the performance statistics not to the code regions (functions), but to the variables (including the heap allocated, static, and local variables) in the source code. Unlike code-centric methods, this data-centric analysis capability exposes new optimization opportunities that are useful in resolving data locality problems. This paper introduces our idea and implementations of the approach with three benchmarks. We also include a case study optimizing benchmarks based on the information from our tool. The optimized versions improved the performance by a factor of 1.4x for LULESH, 2.3x for MiniMD, and 2.1x for CLOMP with simple modifications to the source code.
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