Turbine: Facebook的流处理服务管理平台

Yuan Mei, Luwei Cheng, V. Talwar, Michael Y. Levin, Gabriela Jacques-Silva, N. Simha, Anirban Banerjee, Brian Smith, Tim Williamson, Serhat Yilmaz, Weitao Chen, Guoqiang Jerry Chen
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引用次数: 30

摘要

随着服务越来越依赖实时信号来加快决策和行动,Facebook对流处理的需求也在增长。新兴的实时应用程序需要严格的服务水平目标(slo),具有较低的停机时间和处理延迟——即使在出现故障和负载变化的情况下也是如此。为了解决Facebook规模上的这一挑战,开发了Turbine,这是一个管理平台,旨在弥合现有通用集群管理框架与Facebook流处理需求之间的差距。具体来说,Turbine具有快速和可扩展的任务调度器;一种高效的预测式自动缩放器以及提供容错、原子性、一致性、隔离性和持久性的应用程序更新机制。Turbine已经投入生产三年多了,它是推动Facebook流处理蓬勃发展的核心技术之一。它目前部署在跨越数万台机器的集群上,管理数千个流管道,实时处理每秒tb级的数据。我们的生产经验已经验证了Turbine的有效性:它的任务调度器均匀地平衡了集群之间的工作负载波动;它的自动缩放器可以有效地预测处理计划外的负载峰值;应用程序更新机制在几分钟内一致、高效地完成大规模更新。本文描述了涡轮机架构,讨论了其背后的设计选择,并分享了几个案例研究,展示了涡轮机在生产中的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Turbine: Facebook’s Service Management Platform for Stream Processing
The demand for stream processing at Facebook has grown as services increasingly rely on real-time signals to speed up decisions and actions. Emerging real-time applications require strict Service Level Objectives (SLOs) with low downtime and processing lag—even in the presence of failures and load variability. Addressing this challenge at Facebook scale led to the development of Turbine, a management platform designed to bridge the gap between the capabilities of the existing general-purpose cluster management frameworks and Facebook’s stream processing requirements. Specifically, Turbine features a fast and scalable task scheduler; an efficient predictive auto scaler; and an application update mechanism that provides fault-tolerance, atomicity, consistency, isolation and durability.Turbine has been in production for over three years, and one of the core technologies that enabled a booming growth of stream processing at Facebook. It is currently deployed on clusters spanning tens of thousands of machines, managing several thousands of streaming pipelines processing terabytes of data per second in real time. Our production experience has validated Turbine’s effectiveness: its task scheduler evenly balances workload fluctuation across clusters; its auto scaler effectively and predictively handles unplanned load spikes; and the application update mechanism consistently and efficiently completes high scale updates within minutes. This paper describes the Turbine architecture, discusses the design choices behind it, and shares several case studies demonstrating Turbine capabilities in production.
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