具有自我稳定功能的重新配置

S. Dolev, Chryssis Georgiou, Ioannis Marcoullis, E. Schiller
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引用次数: 10

摘要

当前的重新配置技术依赖于在一致的配置中启动系统,其中所有参与的实体都处于预定义的状态。从那个状态开始,系统必须保持一致性,只要不违反预定义的处理器加入和离开的流失率,并且有无限的存储可用。许多系统无法控制这种流失率,并且无法访问无限存储。如果系统设计者忽视了违反上述假设的结果,则可能导致系统出现非法行为。我们提出了第一个自动恢复重构方案,该方案可以从瞬态故障中恢复,例如暂时违反上述假设。我们的自稳定解决方案通过假定临时访问可靠的故障检测器(fd)来自动恢复安全性。一旦建立了安全性,FD的可靠性就不再需要了。尽管如此,生命还是受到FD不可靠信号的制约。我们的自稳定重新配置技术可以作为在消息传递系统上实现多个动态服务的基础。示例包括自稳定可重构虚拟同步,可扩展到自稳定可重构状态机复制。
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Self-stabilizing Reconfiguration
Current reconfiguration techniques depend on starting the system in a consistent configuration, in which all participating entities are in a predefined state. Starting from that state, the system must preserve consistency as long as a predefined churn rate of processors joins and leaves is not violated, and unbounded storage is available. Many systems cannot control this churn rate and lack access to unbounded storage. System designers that neglect the outcome of violating the above assumptions may doom the system to exhibit illegal behaviors. We present the first automatically recovering reconfiguration scheme that recovers from transient faults, such as temporal violations of the above assumptions. Our self-stabilizing solutions regain safety automatically by assuming temporal access to reliable failure detectors (FDs). Once safety is established, the FD reliability is no longer needed. Still, liveness is conditioned by the FD’s unreliable signals. Our self-stabilizing reconfiguration techniques can serve as the basis for the implementation of several dynamic services over message passing systems. Examples include self-stabilizing reconfigurable virtual synchrony, extendable to a self-stabilizing reconfigurable state machine replication.
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