Medusa:一个高效的云容错MapReduce

Pedro Costa, Xiao Bai, Fernando M. V. Ramos, M. Correia
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引用次数: 18

摘要

web搜索和社交网络等应用程序已经从集中式云架构转向分散式云架构,以提高其可扩展性。MapReduce是一个在单个云中使用数千台机器处理大量数据的编程框架,它也需要扩展到多个云中以适应这种发展。构建多云分布式架构的挑战是巨大的。尽管如此,处理由这种设置引入的新类型故障的能力(例如整个数据中心的中断或由恶意云内部人员引起的任意故障)大大增加了工作量。在本文中,我们提出了Medusa,一个允许MapReduce计算向外扩展到多个云并容忍多种类型故障的平台。我们的解决方案实现了四个目标。首先,它对用户是透明的,用户无需修改即可编写典型的MapReduce应用程序。其次,它不需要对广泛使用的Hadoop框架进行任何修改。第三,所提出的系统远远超出了MapReduce提供的容错能力,可以容忍任意错误、云中断,甚至是由腐败的云内部人员造成的恶意错误。第四,它以合理的成本实现了这种更高级别的容错。我们在ExoGENI测试平台上进行了广泛的实验评估,证明与达到相同弹性水平的传统方法相比,我们的解决方案显着减少了执行时间。
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Medusa: An Efficient Cloud Fault-Tolerant MapReduce
Applications such as web search and social networking have been moving from centralized to decentralized cloud architectures to improve their scalability. MapReduce, a programming framework for processing large amounts of data using thousands of machines in a single cloud, also needs to be scaled out to multiple clouds to adapt to this evolution. The challenge of building a multi-cloud distributed architecture is substantial. Notwithstanding, the ability to deal with the new types of faults introduced by such setting, such as the outage of a whole datacenter or an arbitrary fault caused by a malicious cloud insider, increases the endeavor considerably. In this paper we propose Medusa, a platform that allows MapReduce computations to scale out to multiple clouds and tolerate several types of faults. Our solution fulfills four objectives. First, it is transparent to the user, who writes her typical MapReduce application without modification. Second, it does not require any modification to the widely used Hadoop framework. Third, the proposed system goes well beyond the fault-tolerance offered by MapReduce to tolerate arbitrary faults, cloud outages, and even malicious faults caused by corrupt cloud insiders. Fourth, it achieves this increased level of fault tolerance at reasonable cost. We performed an extensive experimental evaluation in the ExoGENI testbed, demonstrating that our solution significantly reduces execution time when compared to traditional methods that achieve the same level of resilience.
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