Chrysoula Stathakopoulou

TL;DR: This paper describes Fabric, its architecture, the rationale behind various design decisions, its most prominent implementation aspects, as well as its distributed application programming model, and shows that Fabric achieves end-to-end throughput of more than 3500 transactions per second in certain popular deployment configurations.

TL;DR: The Fabric project as mentioned in this paper is a permissioned blockchain system for distributed applications written in standard, general-purpose programming languages, without systemic dependency on a native cryptocurrency, which allows the system to be tailored to particular use cases and trust models.

TL;DR: Mir is a generalization of the celebrated and scrutinized PBFT protocol, with changes needed to accommodate novel features restricted to PBFT liveness, and achieves unprecedented throughput on WANs without sacrificing latency, robustness to malicious behavior, or even performance in clusters.

TL;DR: This work presents Insanely Scalable State Machine Replication, a generic construction to turn leader-driven protocols into scalable multi-leader ones and improves the peak throughput of PBFT, HotStuff, and Raft by 37x, 56x, and 55x, respectively, at a scale of 128 nodes.

TL;DR: Mir-BFT as discussed by the authors is a robust Byzantine fault-tolerant (BFT) total order broadcast protocol aimed at maximizing throughput on wide-area networks (WANs), targeting deployments in decentralized networks, such as permissioned and Proof-of-Stake permissionless blockchain systems.