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2020 IEEE International Symposium on Workload Characterization (IISWC)最新文献

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An In-Depth Analysis of Cloud Block Storage Workloads in Large-Scale Production 大规模生产环境下云块存储工作负载的深度分析
Pub Date : 2020-10-01 DOI: 10.1109/IISWC50251.2020.00013
Jinhong Li, Qiuping Wang, P. Lee, Chao Shi
Cloud block storage systems support diverse types of applications in modern cloud services. Characterizing their I/O activities is critical for guiding better system designs and optimizations. In this paper, we present an in-depth analysis of production cloud block storage workloads through the block-level I/O traces of billions of I/O requests collected from Alibaba Cloud. We study the characteristics of load intensity, spatial patterns, and temporal patterns. Also, we present a comparative study on our traces and the notable public block-level I/O traces from Microsoft Research Cambridge, and identify the commonalities and differences of the two sets of traces. Finally, we provide 15 findings and discuss their implications on load balancing, cache efficiency, and storage cluster management in a cloud block storage system. Our traces are now released for public use.
云块存储系统支持现代云服务中各种类型的应用。描述它们的I/O活动对于指导更好的系统设计和优化至关重要。在本文中,我们通过从阿里云收集的数十亿个I/O请求的块级I/O跟踪,对生产云块存储工作负载进行了深入分析。我们研究了载荷强度、空间模式和时间模式的特征。此外,我们还对我们的轨迹和微软剑桥研究院著名的公共块级I/O轨迹进行了比较研究,并确定了两组轨迹的共性和差异。最后,我们提供了15项研究结果,并讨论了它们对云块存储系统中负载平衡、缓存效率和存储集群管理的影响。我们的痕迹现在公开供公众使用。
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引用次数: 30
Evaluation of Graph Analytics Frameworks Using the GAP Benchmark Suite 使用GAP基准套件评估图形分析框架
Pub Date : 2020-10-01 DOI: 10.1109/IISWC50251.2020.00029
A. Azad, M. Aznaveh, S. Beamer, Mark P. Blanco, Jinhao Chen, Luke D'Alessandro, Roshan Dathathri, Tim Davis, Kevin Deweese, J. Firoz, H. Gabb, G. Gill, Bálint Hegyi, Scott P. Kolodziej, Tze Meng Low, A. Lumsdaine, Tugsbayasgalan Manlaibaatar, T. Mattson, Scott McMillan, R. Peri, K. Pingali, Upasana Sridhar, Gábor Szárnyas, Yunming Zhang, Yongzhe Zhang
Graphs play a key role in data analytics. Graphs and the software systems used to work with them are highly diverse. Algorithms interact with hardware in different ways and which graph solution works best on a given platform changes with the structure of the graph. This makes it difficult to decide which graph programming framework is the best for a given situation. In this paper, we try to make sense of this diverse landscape. We evaluate five different frameworks for graph analytics: SuiteS-parse GraphBLAS, Galois, the NWGraph library, the Graph Kernel Collection, and GraphIt. We use the GAP Benchmark Suite to evaluate each framework. GAP consists of 30 tests: six graph algorithms (breadth-first search, single-source shortest path, PageRank, betweenness centrality, connected components, and triangle counting) on five graphs. The GAP Benchmark Suite includes high-performance reference implementations to provide a performance baseline for comparison. Our results show the relative strengths of each framework, but also serve as a case study for the challenges of establishing objective measures for comparing graph frameworks.
图在数据分析中起着关键作用。图形和用于处理它们的软件系统是高度多样化的。算法以不同的方式与硬件交互,哪个图形解决方案在给定的平台上工作得最好随着图形结构的变化而变化。这使得决定哪个图形编程框架最适合给定情况变得困难。在本文中,我们试图理解这种多样化的景观。我们评估了五种不同的图形分析框架:套件解析GraphBLAS、Galois、NWGraph库、graph Kernel Collection和GraphIt。我们使用GAP基准测试套件来评估每个框架。GAP由30个测试组成:5个图上的6个图算法(宽度优先搜索、单源最短路径、PageRank、中间性中心性、连接组件和三角形计数)。GAP基准测试套件包括高性能参考实现,以提供用于比较的性能基线。我们的结果显示了每个框架的相对优势,但也作为一个案例研究,为比较图框架建立客观的度量。
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引用次数: 15
期刊
2020 IEEE International Symposium on Workload Characterization (IISWC)
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