Isbn: 9781681735665 - network topology and fault-tolerant consensus (3 risultati)

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  • Lingua: Inglese

    Editore: Morgan & Claypool Publishers, 2019

    1681735660 / 9781681735665

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    Da: suffolkbooks, center moriches, NY, U.S.A.suffolkbooks

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    Condizione: Usato - Molto buono

    EUR 18,05

    EUR 3,50 spedizione 
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    Quantità: 1 disponibili

    paperback. Condizione: Very Good. Fast Shipping - Safe and Secure 7 days a week.

  • Lingua: Inglese

    Editore: Morgan & Claypool, 2019

    1681735660 / 9781681735665

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    Da: Revaluation Books, Exeter, Regno UnitoRevaluation Books

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    Condizione: Nuovo

    EUR 128,69

    EUR 11,63 spedizione 
    Spedito da Regno Unito a U.S.A.

    Quantità: 1 disponibili

    Paperback. Condizione: Brand New. 151 pages. 9.25x7.50x0.33 inches. In Stock.

  • Lingua: Inglese

    Editore: Morgan & Claypool Publishers, 2019

    1681735660 / 9781681735665

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    Da: Leopolis, Kraków, PoloniaLeopolis

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    Condizione: Nuovo

    EUR 82,47

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    Soft cover. Condizione: New. 8vo (23.5 cm), XXI, 129 pp. Laminated wrappers. Synopsis: As the structure of contemporary communication networks grows more complex, practical networked distributed systems become prone to component failures. Fault-tolerant consensus in message-passing systems allows participants in the system to agree on a common value despite the malfunction or misbehavior of some components. It is a task of fundamental importance for distributed computing, due to its numerous applications. We summarize studies on the topological conditions that determine the feasibility of consensus, mainly focusing on directed networks and the case of restricted topology knowledge at each participant. Recently, significant efforts have been devoted to fully characterize the underlying communication networks in which variations of fault-tolerant consensus can be achieved. Although the deduction of analogous topological conditions for undirected networks of known topology had shortly followed the introduction of the problem, their extension to the directed network case has been proven a highly non-trivial task. Moreover, global knowledge restrictions, inherent in modern large-scale networks, require more elaborate arguments concerning the locality of distributed computations. In this work, we present the techniques and ideas used to resolve these issues. Recent studies indicate a number of parameters that affect the topological conditions under which consensus can be achieved, namely, the fault model, the degree of system synchrony (synchronous vs. asynchronous), the type of agreement (exact vs. approximate), the level of topology knowledge, and the algorithm class used (general vs. iterative). We outline the feasibility and impossibility results for various combinations of the above parameters, extensively illustrating the relation between network topology and consensus.…