Cache Support in a High Performance Fault-Tolerant Distributed Storage System for Cloud and Big Data

L. Lundberg, Håkan Grahn, D. Ilie, C. Melander
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引用次数: 3

Abstract

Due to the trends towards Big Data and Cloud Computing, one would like to provide large storage systems that are accessible by many servers. A shared storage can, however, become a performance bottleneck and a single-point of failure. Distributed storage systems provide a shared storage to the outside world, but internally they consist of a network of servers and disks, thus avoiding the performance bottleneck and single-point of failure problems. We introduce a cache in a distributed storage system. The cache system must be fault tolerant so that no data is lost in case of a hardware failure. This requirement excludes the use of the common write-invalidate cache consistency protocols. The cache is implemented and evaluated in two steps. The first step focuses on design decisions that improve the performance when only one server uses the same file. In the second step we extend the cache with features that focus on the case when more than one server access the same file. The cache improves the throughput significantly compared to having no cache. The two-step evaluation approach makes it possible to quantify how different design decisions affect the performance of different use cases.
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面向云和大数据的高性能容错分布式存储系统对缓存的支持
由于大数据和云计算的趋势,人们希望提供可由许多服务器访问的大型存储系统。然而,共享存储可能成为性能瓶颈和单点故障。分布式存储系统向外界提供共享存储,但在内部由服务器和磁盘组成网络,从而避免了性能瓶颈和单点故障问题。我们在分布式存储系统中引入缓存。缓存系统必须具有容错性,以便在硬件出现故障时不会丢失数据。此要求不包括使用常见的write-invalidate缓存一致性协议。缓存分两个步骤实现和求值。第一步关注在只有一个服务器使用相同文件时如何改进性能的设计决策。在第二步中,我们扩展缓存,使用一些特性来关注多个服务器访问同一个文件的情况。与没有缓存相比,缓存显著提高了吞吐量。两步评估方法使得量化不同的设计决策如何影响不同用例的性能成为可能。
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