公共云中并行应用的自动通信优化

E. Carreño, M. Diener, E. Cruz, P. Navaux
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引用次数: 10

摘要

影响并行应用程序性能的最重要方面之一是它们的任务之间的通信速度。为了优化通信,应该将交换大量数据的任务映射到具有高网络性能的处理单元。这种技术称为通信感知任务映射,需要有关底层网络拓扑的详细信息才能进行准确的映射。以前关于任务映射的工作主要集中在网络集群或共享内存体系结构上,其中拓扑结构可以直接从硬件环境中确定。云计算给任务映射增加了重大挑战,因为最终用户无法获得有关网络拓扑的信息。此外,由于外部因素,例如其他用户的不同使用模式,通信性能可能会发生变化。在本文中,我们提出了一种在具有多个实例的商业云环境中执行通信感知任务映射的新解决方案。我们的建议包括一个简短的分析阶段,以发现云实例之间的网络拓扑和速度。分析可以在每个应用程序启动之前执行,因为它只会产生微不足道的开销。然后将此信息与并行应用程序的通信模式一起使用,根据通信量对任务进行分组,并将具有大量通信的组映射到具有高网络性能的云实例。通过这种方式,可以提高应用程序性能,减少实例之间的数据流量。我们在公共云中使用来自高性能计算领域的各种基于mpi的并行基准测试以及大型科学应用来评估我们的建议。在实验中,与默认调度策略相比,我们观察到显著的性能改进(速度提高了11倍)。
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Automatic Communication Optimization of Parallel Applications in Public Clouds
One of the most important aspects that influences the performance of parallel applications is the speed of communication between their tasks. To optimize communication, tasks that exchange lots of data should be mapped to processing units that have a high network performance. This technique is called communication-aware task mapping and requires detailed information about the underlying network topology for an accurate mapping. Previous work on task mapping focuses on network clusters or shared memory architectures, in which the topology can be determined directly from the hardware environment. Cloud computing adds significant challenges to task mapping, since information about network topologies is not available to end users. Furthermore, the communication performance might change due to external factors, such as different usage patterns of other users. In this paper, we present a novel solution to perform communication-aware task mapping in the context of commercial cloud environments with multiple instances. Our proposal consists of a short profiling phase to discover the network topology and speed between cloud instances. The profiling can be executed before each application start as it causes only a negligible overhead. This information is then used together with the communication pattern of the parallel application to group tasks based on the amount of communication and to map groups with a lot of communication between them to cloud instances with a high network performance. In this way, application performance is increased, and data traffic between instances is reduced. We evaluated our proposal in a public cloud with a variety of MPI-based parallel benchmarks from the HPC domain, as well as a large scientific application. In the experiments, we observed substantial performance improvements (up to 11 times faster) compared to the default scheduling policies.
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