In this paper, we describe and prove correct the novel FATAL pulse syn- chronization protocol, which facilitates a direct implementation in standard.

As our first building block, we describe and prove correct a novel distributed, Byzantine fault-tolerant, probabilistically self-stabilizing pulse ...

May 24, 2011 · We describe and prove correct a novel Byzantine fault-tolerant self-stabilizing pulse synchronization protocol, which can be implemented using standard ...

This paper is the first step in an attempt to develop a very robust high-precision clocking system for hardware designs like systems-on-chip for critical ...

We describe and prove correct the novel FATAL pulse synchronization protocol, which facilitates a direct implementation in standard asynchronous digital logic.4 ...

Oct 22, 2024 · As our first building block, we describe and prove correct a novel distributed, Byzantine fault-tolerant, probabilistically self-stabilizing ...

Oct 14, 2011 · Solving this task sufficiently well will allow to build a very robust high-precision clocking system for hardware designs like systems-on-chips ...

This article describes and proves correct a novel distributed, Byzantine fault-tolerant, probabilistically self-stabilizing pulse synchronization protocol, ...

Dolev, D., Függer, M., Schmid, U., & Lenzen, C. (2014). Fault-tolerant Algorithms for Tick-generation in Asynchronous Logic: Robust Pulse Generation.

It is devoted to the design and the correctness proof of a novel Byzantine fault-tolerant self-stabilizing pulse synchronization protocol, which facilitates a ...