数据中心应用的即时流感知最小速率保证拥塞控制协议

Zhijun Wang, Yunxiang Wu, Stoddard Rosenkrantz, Ning Li, Minh Nguyen, Hao Che
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引用次数: 0

摘要

今天的数据中心需要满足应用程序的服务水平目标(slo),这可以转化为在作业执行阶段之间运行的(co)流的最后期限。因此,高概率地满足(co)流截止日期对于吸引和留住客户,从而产生高收入至关重要。为了弥补传输协议的不足,特别是在面对突发拥塞时,我们提出了DCMRG,一种突发拥塞感知、基于ecn的软最小速率保证拥塞控制协议,用于数据中心应用。DCMRG由两个主要组件组成,即运行在发送主机上的拥塞控制器和运行在接收主机上的即时拥塞控制器。DCMRG具有三个显著特征。首先,它是第一个将拥塞控制与流量感知控制相结合,同时提供软最小流量保证的拥塞控制协议。其次,DCMRG很容易部署在数据中心网络中。它只需要主机的软件升级和网络内节点的最小帮助(即ECN)。第三,DCMRG向后兼容广泛部署的、基于标准的传输协议(如DCTCP),并且在设计上对它们友好。大规模数据中心网络仿真结果表明,在没有铸成拥塞的情况下,与D2TCP和MRG相比,DCMRG可以将流截止日期错过率分别降低3倍和1.6倍。此外,与D2TCP与ICTCP、MRG与ICTCP相比,DCMRG在面对突发拥塞时,将共流截止日期缺失率分别降低了40%和60%以上,将丢包概率分别降低了60%和80%。
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An Incast-Coflow-Aware Minimum-Rate-Guaranteed Congestion Control Protocol for Datacenter Applications
Today s datacenters need to meet service level objectives (SLOs) for applications, which can be translated into deadlines for (co)flows running between job execution stages. As a result, meeting (co)flow deadlines with high probabilities is essential to attract and retain customers and hence, generate high revenue. To fill the lack of a transport protocol that can facilitate low (co)flow deadline miss rate, especially in the face of incast congestion, in this paper, we propose DCMRG, an incast-coflow-aware, ECN-based soft minimum-rate-guaranteed congestion control protocol for datacenter applications. DCMRG is composed of two major components, i.e., a congestion controller running on the send host and an incast congestion controller running on the receive host. DCMRG possesses three salient features. First, it is the first congestion control protocol that integrates congestion control with coflow-aware incast control while providing soft minimum flow rate guarantee. Second, DCMRG is readily deployable in datacenter networks. It only requires software upgrade in the hosts and minimum assistance (i.e., ECN) from in-network nodes. Third, DCMRG is backward compatible with and, by design, friendly to the widely deployed, standard-based transport protocols, such as DCTCP. The results from large-scale datacenter network simulation demonstrate that in the absence of incast congestion, DCMRG can reduce flow deadline miss rates by 3x and 1.6x compared to D2TCP and MRG, respectively. Moreover, DCMRG further reduces the coflow deadline miss rate by more than 40% and 60% and lowers the packet drop probability by 60% and 80%, in the face of incast congestion, compared to D2TCP with ICTCP and MRG with ICTCP, respectively.
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