SBFT:可扩展和分散的信任基础设施

Guy Golan-Gueta, Ittai Abraham, Shelly Grossman, D. Malkhi, Benny Pinkas, M. Reiter, Dragos-Adrian Seredinschi, Orr Tamir, Alin Tomescu
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引用次数: 263

摘要

SBFT是一种先进的拜占庭容错状态机复制系统,可解决可扩展性、去中心化和全球地理复制的挑战。SBFT针对去中心化进行了优化,并在200多个活动副本的部署上进行了实验评估,以抵御恶意对手控制f=64个副本。我们的实验显示了SBFT的不同算法成分如何影响其性能和可扩展性。结果表明,与实现PBFT协议的高度优化系统相比,SBFT同时提供了近2倍的吞吐量和约1.5倍的延迟。为了实现这种性能改进,SBFT结合了四个要素:使用收集器和阈值签名将通信减少到线性,使用乐观快速路径,减少客户端通信,并为快速路径利用冗余服务器。SBFT是第一个实现正确的双模式视图更改协议的系统,该协议允许有效地运行乐观快速路径或回退慢路径,而不会导致视图更改以在模式之间切换。
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SBFT: A Scalable and Decentralized Trust Infrastructure
SBFT is a state of the art Byzantine fault tolerant state machine replication system that addresses the challenges of scalability, decentralization and global geo-replication. SBFT is optimized for decentralization and is experimentally evaluated on a deployment of more than 200 active replicas withstanding a malicious adversary controlling f=64 replicas. Our experiments show how the different algorithmic ingredients of SBFT contribute to its performance and scalability. The results show that SBFT simultaneously provides almost 2x better throughput and about 1.5x better latency relative to a highly optimized system that implements the PBFT protocol. To achieve this performance improvement, SBFT uses a combination of four ingredients: using collectors and threshold signatures to reduce communication to linear, using an optimistic fast path, reducing client communication and utilizing redundant servers for the fast path. SBFT is the first system to implement a correct dual-mode view change protocol that allows to efficiently run either an optimistic fast path or a fallback slow path without incurring a view change to switch between modes.
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