Meeting Deadlines in Datacenter Networks: An Analysis on Deadline-Aware Transport Layer Protocols

Ayan Shymyrbay, Arshyn Zhanbolatov, Assilkhan Amankhan, A. Bakambekova, Ikechi Augustine Ukaegbu
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引用次数: 3

Abstract

Data centers had come to the scene as an effective framework for running a huge range of real-time and cloud applications. When TCP is deployed in a broad data center environment, it fails to maintain high throughput and deadline guarantees, mainly due to the unfair sharing and flow quenching. Several transport layer designs have been proposed over the last few years: some of them were claimed to outperform the currently used ones. This paper provides an analysis of some of the transport-layer protocols, namely D3 Deadline Driven Delivery), PDQ (Preemptive Distributed Quick), D2 TCP (Deadline-aware Data Center TCP), DCTCP (Data Center TCP) and MCP (Multiflow Conversation Protocol). The analysis includes the evaluation of their design implementation, performance and problems. The FCFS mechanisms at the heart of the D3 forces the protocol to be tied to the arrival order of the flows, which leads to the priority inversion issue resulting in flows unjustifiably missing their deadlines. The PDQ protocol has been described as a mechanism for a flow urgency regulation which emulates the EDF behavior. While PDQ has improved upon D3, it was pointed out that the management of priority lists and per-flow states in this line of protocols puts a great burden on the network core, thus restricting the efficient router’s bandwidth. Motivated by DTCP, D2 TCP and MCP utilize congestion window modeling at the end hosts to handle the deadline flows ensuring network stability and deadline meeting guarantees. Also, deployability problem is likely to be solved by recent advances of SDN introducing a centralized control over networks.
在数据中心网络中满足期限:对期限感知传输层协议的分析
数据中心已经成为运行大量实时和云应用程序的有效框架。当TCP部署在大数据中心环境中时,由于不公平的共享和流量淬灭,TCP无法保持高吞吐量和截止日期的保证。在过去的几年中,已经提出了几种传输层设计:其中一些被认为比目前使用的传输层设计性能更好。本文分析了一些传输层协议,即D3截止日期驱动交付(Deadline- Driven Delivery), PDQ (Preemptive Distributed Quick), D2 TCP(截止日期感知数据中心TCP), DCTCP(数据中心TCP)和MCP(多流会话协议)。分析包括对它们的设计、实现、性能和存在问题的评价。D3核心的FCFS机制迫使协议绑定到流的到达顺序,这导致优先级反转问题,导致流不合理地错过截止日期。PDQ协议被描述为一种模拟EDF行为的流量紧急调节机制。虽然PDQ在D3的基础上进行了改进,但有人指出,在这一系列协议中,优先级列表和每流状态的管理给网络核心带来了很大的负担,从而限制了高效路由器的带宽。在DTCP的激励下,D2 TCP和MCP利用终端主机的拥塞窗口建模来处理截止日期流,保证网络的稳定性和截止日期满足的保证。此外,可部署性问题很可能通过SDN的最新进展来解决,该进展引入了对网络的集中控制。
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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