Difference between revisions of "Publications/herault.06.qest"
From LRDE
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{{Publication |
{{Publication |
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| date = 2006-01-01 |
| date = 2006-01-01 |
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| authors = Thomas Hérault, Richard Lassaigne, Sylvain Peyronnet |
| authors = Thomas Hérault, Richard Lassaigne, Sylvain Peyronnet |
Revision as of 15:52, 14 November 2013
- Authors
- Thomas Hérault, Richard Lassaigne, Sylvain Peyronnet
- Where
- Proceedings of Qest 2006
- Type
- inproceedings
- Projects
- APMC
- Date
- 2006-01-01
Abstract
In this paper, we give a brief overview of APMC (Approximate Probabilistic Model Checker). APMC is a model checker that implements approximate probabilistic verification of probabilistic systems. It is based on Monte-Carlo method and the theory of randomized approximation schemes and allows to verify extremely large models without explicitly representing the global transition system. To avoid the state-space explosion phenomenon, APMC gives an accurate approximation of the satisfaction probability of the property instead of the exact value, but using only a very small amount of memory. The version of APMC we present in this paper can now handle efficiently both discrete and continuous time probabilistic systems.
Bibtex (lrde.bib)
@InProceedings{ herault.06.qest, author = {Thomas H\'erault and Richard Lassaigne and Sylvain Peyronnet}, title = {{APMC 3.0}: Approximate verification of Discrete and Continuous Time Markov Chains}, booktitle = {Proceedings of Qest 2006}, year = 2006, pages = {129--130}, project = {APMC}, abstract = {In this paper, we give a brief overview of APMC (Approximate Probabilistic Model Checker). APMC is a model checker that implements approximate probabilistic verification of probabilistic systems. It is based on Monte-Carlo method and the theory of randomized approximation schemes and allows to verify extremely large models without explicitly representing the global transition system. To avoid the state-space explosion phenomenon, APMC gives an accurate approximation of the satisfaction probability of the property instead of the exact value, but using only a very small amount of memory. The version of APMC we present in this paper can now handle efficiently both discrete and continuous time probabilistic systems.} }