微复制

T. Distler, M. Eischer, Laura Lawniczak
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引用次数: 0

摘要

状态机复制协议是许多容错服务的基础。不幸的是,它们固有的复杂性使得现有的实现非常难以调试和测试。为了解决这个问题,我们提出了一种新的设计方法,微复制,其主要目标是减少错误,并使复制协议具有改进的可调试性。在其核心,我们的概念由一组原则组成,如果在协议设计期间遵循这些原则,则可以在以后显著地促进关键任务,例如隔离bug源、状态信息检索以及根本原因识别。为了实现这一点,微复制将协议组织为专用模块(“微副本”)的组合,每个模块封装一个特定的协议阶段或机制,因此比传统的单片副本更容易测试和监控。除了讨论我们方法的基本思想之外,为了展示其可行性,我们还介绍并评估了Mirador,这是第一个微复制拜占庭容错协议。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Micro Replication
State-machine replication protocols represent the foundation of many fault-tolerant services. Unfortunately, their inherent complexity makes existing implementations notoriously difficult to debug and test. To address this problem, we propose a novel design approach, micro replication, whose main goal is to reduce bugs and enable replication protocols with improved debuggability properties. At its core, our concept consists of a set of principles that, if followed during protocol design, later significantly facilitate crucial tasks such as bug-source isolation, state-information retrieval, as well as root-cause identification. To achieve this, micro replication organizes a protocol as a composition of specialized modules (“micro replicas”) that each encapsulate a particular protocol phase or mechanism, and therefore are easier to test and monitor than traditional monolithic replicas. Besides discussing the underlying ideas of our approach, to show its feasibility we also present and evaluate Mirador, the first micro-replicated Byzantine fault-tolerant protocol.
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