In general, our approach introduces at most logarithmic overheads in terms of stabilisation time and broadcasted bits over the underlying consensus routine.

In general, our approach introduces at most logarithmic over- heads in terms of stabilisation time and broadcasted bits over the underlying consensus routine.

May 17, 2017 · Abstract page for arXiv paper 1705.06173: Self-stabilising Byzantine Clock Synchronisation is Almost as Easy as Consensus.

Oct 12, 2017 · Self-Stabilising Byzantine Clock Synchronisation is Almost as Easy as Consensus. Authors Christoph Lenzen, Joel Rybicki. Part of: Volume: 31st ...

Abstract. We give fault-tolerant algorithms for establishing synchrony in distributed systems in which each of the n nodes has its own clock.

Our main result is a framework that reduces pulse synchronisation to an arbitrary synchronous binary consensus routine at very small overheads. In other words, ...

This work gives fault-tolerant algorithms for establishing synchrony in distributed systems in which each of the n nodes has its own clock and gives the ...

Dec 12, 2024 · PDF | We give fault-tolerant algorithms for establishing synchrony in distributed systems in which each of the $n$ nodes has its own clock.

In general, our approach introduces at most logarithmic overheads in terms of stabilisation time and broadcasted bits over the underlying consensus routine.

In general, our approach introduces at most logarithmic overheads in terms of stabilisation timeand broadcasted bits over the underlying consensus routine.