Abstract. The possibility of partial failure occuring at any stage of computation complicates rigorous formal treatment of distributed algorithms. We propose a methodology for formalising and proving the correctness of distributed algorithms which alleviates this complexity. The methodology uses fault-tolerance bisimulation proof techniques to split the analysis into two phases, that is a failurefree phase and a failure phase, permitting separation of concerns. We design a minimal partial-failure calculus, develop a corresponding bisimulation theory for it and express a consensus algorithm in the calculus. We then use the consensus example and the calculus theory to demonstrate the benefits of our methodology.
AbstractProving the properties of a program which must execute on a distributed system whose nodes m...
International audienceConsensus is the paradigmatic problem in fault-tolerant distributed computing:...
This paper presents a formal veriffication of two consensus protocols for distributed systems presen...
The possibility of partial failure occuring at any stage of computation complicates rigorous formal ...
The possibility of partial failure occuring at any stage of computation complicates rigorous formal ...
Distributed Algorithms express problems as concurrent failing processes which co- operate and intera...
Distributed computing is inherently based on replication, promising in-creased tolerance to failures...
We give a process calculus model that formalizes a well-known algorithm (introduced by Chandra and T...
Distributed computing is inherently based on replication, promising increased tolerance to failures ...
Abstract. Distributed Algorithms are hard to prove correct. In settings with process failures, thing...
Abstract. Consensus is the paradigmatic problem in fault-tolerant dis-tributed computing: it require...
Fault-tolerant distributed algorithms play an important role in ensuring the reliability of many sof...
We give a process calculus model that formalizes a well-known algorithm (introduced by Chandra and T...
The consensus problem is a fundamental paradigm for fault-tolerant distributed computing. It abstrac...
We present a new abstraction to replace the $t$ of $n$ assumption used in designing fault-tolerant ...
AbstractProving the properties of a program which must execute on a distributed system whose nodes m...
International audienceConsensus is the paradigmatic problem in fault-tolerant distributed computing:...
This paper presents a formal veriffication of two consensus protocols for distributed systems presen...
The possibility of partial failure occuring at any stage of computation complicates rigorous formal ...
The possibility of partial failure occuring at any stage of computation complicates rigorous formal ...
Distributed Algorithms express problems as concurrent failing processes which co- operate and intera...
Distributed computing is inherently based on replication, promising in-creased tolerance to failures...
We give a process calculus model that formalizes a well-known algorithm (introduced by Chandra and T...
Distributed computing is inherently based on replication, promising increased tolerance to failures ...
Abstract. Distributed Algorithms are hard to prove correct. In settings with process failures, thing...
Abstract. Consensus is the paradigmatic problem in fault-tolerant dis-tributed computing: it require...
Fault-tolerant distributed algorithms play an important role in ensuring the reliability of many sof...
We give a process calculus model that formalizes a well-known algorithm (introduced by Chandra and T...
The consensus problem is a fundamental paradigm for fault-tolerant distributed computing. It abstrac...
We present a new abstraction to replace the $t$ of $n$ assumption used in designing fault-tolerant ...
AbstractProving the properties of a program which must execute on a distributed system whose nodes m...
International audienceConsensus is the paradigmatic problem in fault-tolerant distributed computing:...
This paper presents a formal veriffication of two consensus protocols for distributed systems presen...