Formal analysis of control and termination of distributed computation in weaker spaces

The control and termination detection of a distributed computation involving large-scale distributed database is difficult in the presence of concurrency, random network delays, and varying reliability of computing nodes. The formal modeling and analysis of controllability as well as termination det...

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Main Author: Susmit Bagchi
Format: Article
Language:English
Published: Taylor & Francis Group 2018-01-01
Series:Cogent Engineering
Subjects:
Online Access:http://dx.doi.org/10.1080/23311916.2018.1475033
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spelling doaj-5cea38a87bd24e7d80f1d1dcbcf8455c2021-03-02T14:46:47ZengTaylor & Francis GroupCogent Engineering2331-19162018-01-015110.1080/23311916.2018.14750331475033Formal analysis of control and termination of distributed computation in weaker spacesSusmit Bagchi0Gyeongsang National UniversityThe control and termination detection of a distributed computation involving large-scale distributed database is difficult in the presence of concurrency, random network delays, and varying reliability of computing nodes. The formal modeling and analysis of controllability as well as termination detection of such systems are required to design reliable and dependable systems involving distributed computations and distributed datasets. The modeling and analysis of distributed computation can be performed by using combinatorial topology by forming simplexes, which imposes a set of relatively rigid geometric structures. This article proposes the modeling and analysis of observable and controllable distributed computation in weaker topological spaces. The proposed model enhances structural flexibility in metrized monotone spaces. The metrizability of the space and convergence property of the computation are analyzed. Axiomatic termination detection and fault mode analysis are formulated. A distributed algorithm is designed to observe and to determine varying control states of computation. The article includes a detailed comparative analysis of a set of models in the domain.http://dx.doi.org/10.1080/23311916.2018.1475033distributed computingtermination detectionmonotonetopologylatticestable predicate
collection DOAJ
language English
format Article
sources DOAJ
author Susmit Bagchi
spellingShingle Susmit Bagchi
Formal analysis of control and termination of distributed computation in weaker spaces
Cogent Engineering
distributed computing
termination detection
monotone
topology
lattice
stable predicate
author_facet Susmit Bagchi
author_sort Susmit Bagchi
title Formal analysis of control and termination of distributed computation in weaker spaces
title_short Formal analysis of control and termination of distributed computation in weaker spaces
title_full Formal analysis of control and termination of distributed computation in weaker spaces
title_fullStr Formal analysis of control and termination of distributed computation in weaker spaces
title_full_unstemmed Formal analysis of control and termination of distributed computation in weaker spaces
title_sort formal analysis of control and termination of distributed computation in weaker spaces
publisher Taylor & Francis Group
series Cogent Engineering
issn 2331-1916
publishDate 2018-01-01
description The control and termination detection of a distributed computation involving large-scale distributed database is difficult in the presence of concurrency, random network delays, and varying reliability of computing nodes. The formal modeling and analysis of controllability as well as termination detection of such systems are required to design reliable and dependable systems involving distributed computations and distributed datasets. The modeling and analysis of distributed computation can be performed by using combinatorial topology by forming simplexes, which imposes a set of relatively rigid geometric structures. This article proposes the modeling and analysis of observable and controllable distributed computation in weaker topological spaces. The proposed model enhances structural flexibility in metrized monotone spaces. The metrizability of the space and convergence property of the computation are analyzed. Axiomatic termination detection and fault mode analysis are formulated. A distributed algorithm is designed to observe and to determine varying control states of computation. The article includes a detailed comparative analysis of a set of models in the domain.
topic distributed computing
termination detection
monotone
topology
lattice
stable predicate
url http://dx.doi.org/10.1080/23311916.2018.1475033
work_keys_str_mv AT susmitbagchi formalanalysisofcontrolandterminationofdistributedcomputationinweakerspaces
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