Stochastic process algebras: from individuals to populations
Stochastic process algebras: from individuals to populations
In this paper we report on progress in the use of stochastic process algebras for representing systems which contain many replications of components such as clients, servers and devices. Such systems have traditionally been difficult to analyse even when using high-level models because of the need to represent the vast range of their potential behaviour. Models of concurrent systems with many components very quickly exceed the storage capacity of computing devices even when efficient data structures are used to minimize the cost of representing each state. Here, we show how population-based models that make use of a continuous approximation of the discrete behaviour can be used to efficiently analyse the temporal behaviour of very large systems via their collective dynamics. This approach enables modellers to study problems that cannot be tackled with traditional discrete-state techniques such as continuous-time Markov chains
866-881
Hillston, Jane
6d7d2e03-3d63-4510-8b7e-fcbe4653db13
Tribastone, Mirco
30bf9ef9-63ac-4940-9cc8-ed39b945f1de
Gilmore, Stephen
35827633-4caa-41ab-9808-fb4309530e3f
2012
Hillston, Jane
6d7d2e03-3d63-4510-8b7e-fcbe4653db13
Tribastone, Mirco
30bf9ef9-63ac-4940-9cc8-ed39b945f1de
Gilmore, Stephen
35827633-4caa-41ab-9808-fb4309530e3f
Hillston, Jane, Tribastone, Mirco and Gilmore, Stephen
(2012)
Stochastic process algebras: from individuals to populations.
The Computer Journal, 55 (7), .
(doi:10.1093/comjnl/bxr094).
Abstract
In this paper we report on progress in the use of stochastic process algebras for representing systems which contain many replications of components such as clients, servers and devices. Such systems have traditionally been difficult to analyse even when using high-level models because of the need to represent the vast range of their potential behaviour. Models of concurrent systems with many components very quickly exceed the storage capacity of computing devices even when efficient data structures are used to minimize the cost of representing each state. Here, we show how population-based models that make use of a continuous approximation of the discrete behaviour can be used to efficiently analyse the temporal behaviour of very large systems via their collective dynamics. This approach enables modellers to study problems that cannot be tackled with traditional discrete-state techniques such as continuous-time Markov chains
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Published date: 2012
Organisations:
Electronic & Software Systems
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Local EPrints ID: 356820
URI: http://eprints.soton.ac.uk/id/eprint/356820
PURE UUID: a95633d7-cffa-4b2a-aec0-1a022315745d
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Date deposited: 13 Sep 2013 16:16
Last modified: 15 Mar 2024 03:51
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Author:
Jane Hillston
Author:
Mirco Tribastone
Author:
Stephen Gilmore
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