AbstractA distributed task T is 1-solvable if there exists a protocol that solves it in the presence of (at most) one crash failure. A precise characterization of the 1-solvable tasks was given by Biran et al. (1990). In this paper we determine the number of rounds of communication that are required, in the worst case, by a protocol which 1-solves a given 1-solvable task T for n processors. We define the radius R(T) of T, and show that if R(T) is finite, then the number of rounds is Θ(logn R(T)); more precisely, we give a lower bound of log(n − 1) R(T), and an upper bound of 2 + ⌈log(n − 1) R(T)⌉. The upper bound implies, for example, that each of the following tasks: renaming, order preserving renaming (Attiya et al, 1990) and binary monot...
In consensus, the n nodes of a distributed system seek to take a consistent decision on some output,...
Abstract. This paper establishes the first theorem relating resilience, round complexity and authent...
AbstractLower bounds for distributed algorithms for complete networks of processors (i.e., networks ...
We present new lower and upper bounds on the number of communication rounds required for asynchronou...
Cover title.Includes bibliographical references (p. 12).Supported by the National Science Foundation...
An indulgent algorithm is a distributed algorithm that tolerates asynchronous periods of the network...
AbstractWe introduce new techniques for deriving lower bounds on message complexity in asynchronous ...
We study the communication complexity of asynchronous distributed algorithms, such as the dis-tribut...
We introduce new techniques for deriving lower bounds on the message complexity in asynchronous dist...
AbstractWe prove the following four results on communication complexity: (1) For every k ≥ 2, the la...
This paper establishes the first theorem relating resilience, round complexity and authentication in...
This paper presents a tight lower bound on the time complexity of indulgent consensus algorithms, i....
We prove the following four results on communication complexity: 1) For every k ≥ 2, the language Lk...
We study the round complexity of problems in a synchronous, messagepassing system with crash failure...
AbstractThe k-set-agreement problem consists for a set of n processes to agree on less than k among ...
In consensus, the n nodes of a distributed system seek to take a consistent decision on some output,...
Abstract. This paper establishes the first theorem relating resilience, round complexity and authent...
AbstractLower bounds for distributed algorithms for complete networks of processors (i.e., networks ...
We present new lower and upper bounds on the number of communication rounds required for asynchronou...
Cover title.Includes bibliographical references (p. 12).Supported by the National Science Foundation...
An indulgent algorithm is a distributed algorithm that tolerates asynchronous periods of the network...
AbstractWe introduce new techniques for deriving lower bounds on message complexity in asynchronous ...
We study the communication complexity of asynchronous distributed algorithms, such as the dis-tribut...
We introduce new techniques for deriving lower bounds on the message complexity in asynchronous dist...
AbstractWe prove the following four results on communication complexity: (1) For every k ≥ 2, the la...
This paper establishes the first theorem relating resilience, round complexity and authentication in...
This paper presents a tight lower bound on the time complexity of indulgent consensus algorithms, i....
We prove the following four results on communication complexity: 1) For every k ≥ 2, the language Lk...
We study the round complexity of problems in a synchronous, messagepassing system with crash failure...
AbstractThe k-set-agreement problem consists for a set of n processes to agree on less than k among ...
In consensus, the n nodes of a distributed system seek to take a consistent decision on some output,...
Abstract. This paper establishes the first theorem relating resilience, round complexity and authent...
AbstractLower bounds for distributed algorithms for complete networks of processors (i.e., networks ...