Juan Gómez-Luna, I. E. Hajj, Li-Wen Chang, Victor Garcia-Flores, Simon Garcia De Gonzalo, T. Jablin, Antonio J. Peña, Wen-mei W. Hwu
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引用次数: 72
摘要
异构系统架构正朝着设备间更紧密集成的方向发展,具有诸如共享虚拟内存、内存一致性和系统范围原子等新特性。语言、设备架构、系统规范和应用程序正在迅速适应紧密集成的异构平台的挑战和机遇。诸如OpenCL 2.0、CUDA 8.0和c++ AMP等编程语言允许程序员利用这些架构在CPU和GPU线程之间进行高效协作。为了评估这些新的架构和编程语言,并使研究人员能够试验新的想法,需要一套针对这些架构的CPU-GPU紧密协作的基准测试。在本文中,我们将针对异构架构的应用程序分类为通用协作模式,包括数据分区、细粒度任务分区和粗粒度任务分区。我们提出了Chai,这是一套新的14个基准测试,涵盖了这些模式,并以不同的强度练习了异构架构的不同特征。Chai中的每个基准测试在不同的编程模型(如OpenCL, c++ AMP和CUDA)中有七种不同的实现,并使用或不使用最新的异构架构功能。我们根据不同的输入大小和协作组合来描述每个基准的行为,并评估使用异构架构的新特性对应用程序性能的影响。
Chai: Collaborative heterogeneous applications for integrated-architectures
Heterogeneous system architectures are evolving towards tighter integration among devices, with emerging features such as shared virtual memory, memory coherence, and systemwide atomics. Languages, device architectures, system specifications, and applications are rapidly adapting to the challenges and opportunities of tightly integrated heterogeneous platforms. Programming languages such as OpenCL 2.0, CUDA 8.0, and C++ AMP allow programmers to exploit these architectures for productive collaboration between CPU and GPU threads. To evaluate these new architectures and programming languages, and to empower researchers to experiment with new ideas, a suite of benchmarks targeting these architectures with close CPU-GPU collaboration is needed. In this paper, we classify applications that target heterogeneous architectures into generic collaboration patterns including data partitioning, fine-grain task partitioning, and coarse-grain task partitioning. We present Chai, a new suite of 14 benchmarks that cover these patterns and exercise different features of heterogeneous architectures with varying intensity. Each benchmark in Chai has seven different implementations in different programming models such as OpenCL, C++ AMP, and CUDA, and with and without the use of the latest heterogeneous architecture features. We characterize the behavior of each benchmark with respect to varying input sizes and collaboration combinations, and evaluate the impact of using the emerging features of heterogeneous architectures on application performance.