Stream: Decentralized opportunistic inter-coflow scheduling for datacenter networks

Hengky Susanto, Hao Jin, Kai Chen
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引用次数: 42

Abstract

Coflow scheduling can improve application-level communication performance for data-parallel clusters. However, most prior coflow scheduling schemes are based on the centralized approach, which achieve good performance but suffers from high control overhead and scalability issue. On the other hand, state of the art decentralized solution requires switch modification, which makes it hard to implement. In this paper, we present Stream, the decentralized and readilyimplementable solution for coflow scheduling. The key idea of Stream is to opportunistically take advantage of many-to-one and many-to-many coflow patterns to coordinate coflows without resorting to the centralized controller, and then emulate shortest coflow first scheduling to minimize the average coflow completion time (CCT). We implement Stream with existing commodity switches and show its performance using both testbed experiments and large-scale simulations. Our evaluation results show that Stream's performance is comparable to the centralized solution, and outperforms the state of the art decentralized scheme by 1.77x on average.
流:用于数据中心网络的分散式机会互流调度
协同流调度可以提高数据并行集群的应用级通信性能。然而,大多数现有的协同流调度方案都是基于集中式调度方法,虽然具有良好的性能,但存在较高的控制开销和可扩展性问题。另一方面,最先进的去中心化解决方案需要修改开关,这使得它很难实现。在本文中,我们提出了流,一种分散的、易于实现的协同流调度解决方案。流的关键思想是利用多对一和多对多的协同流模式来协调协同流,而不借助于集中控制器,然后模拟最短的协同流优先调度,以最小化平均协同流完成时间(CCT)。我们使用现有的商品交换机实现Stream,并通过测试平台实验和大规模模拟来展示其性能。我们的评估结果表明,Stream的性能与中心化解决方案相当,并且平均比最先进的去中心化方案高出1.77倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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