Less is more: Estimating probabilistic rewards over partial system explorations

Model-based reliability estimation of systems can provide useful insights early in the development process. However, computational complexity of estimating metrics such as mean time to first failure (MTTFF), turnaround time (TAT), or other domain-based quantitative measures can be prohibitive both i...

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Autores principales: Pavese, E., Braberman, V., Uchitel, S.
Formato: JOUR
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_1049331X_v25_n2_p_Pavese
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spelling todo:paper_1049331X_v25_n2_p_Pavese2023-10-03T15:58:38Z Less is more: Estimating probabilistic rewards over partial system explorations Pavese, E. Braberman, V. Uchitel, S. Estimation Model checking Partial verification Probability Quantitativemodelling Estimation Probability Turnaround time Mean time to first failure Partial verification Probabilistic model checking Quantitative measures Quantitativemodelling Reliability estimation Statistical model checking Systematic exploration Model checking Model-based reliability estimation of systems can provide useful insights early in the development process. However, computational complexity of estimating metrics such as mean time to first failure (MTTFF), turnaround time (TAT), or other domain-based quantitative measures can be prohibitive both in time, space, and precision. In this article, we present an alternative to exhaustive model exploration, as in probabilistic model checking, and partial random exploration, as in statistical model checking. Our hypothesis is that a (carefully crafted) partial systematic exploration of a system model can provide better bounds for these quantitative model metrics at lower computation cost. We present a novel automated technique for metric estimation that combines simulation, invariant inference, and probabilistic model checking. Simulation produces a probabilistically relevant set of traces from which a state invariant is inferred. The invariant characterises a partial model, which is then exhaustively explored using probabilistic model checking. We report on experiments that suggest that metric estimation using this technique (for both fully probabilistic models and those exhibiting nondeterminism) can be more effective than (full-model) probabilistic and statistical model checking, especially for system models for which the events of interest are rare. © 2016 ACM. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_1049331X_v25_n2_p_Pavese
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Estimation
Model checking
Partial verification
Probability
Quantitativemodelling
Estimation
Probability
Turnaround time
Mean time to first failure
Partial verification
Probabilistic model checking
Quantitative measures
Quantitativemodelling
Reliability estimation
Statistical model checking
Systematic exploration
Model checking
spellingShingle Estimation
Model checking
Partial verification
Probability
Quantitativemodelling
Estimation
Probability
Turnaround time
Mean time to first failure
Partial verification
Probabilistic model checking
Quantitative measures
Quantitativemodelling
Reliability estimation
Statistical model checking
Systematic exploration
Model checking
Pavese, E.
Braberman, V.
Uchitel, S.
Less is more: Estimating probabilistic rewards over partial system explorations
topic_facet Estimation
Model checking
Partial verification
Probability
Quantitativemodelling
Estimation
Probability
Turnaround time
Mean time to first failure
Partial verification
Probabilistic model checking
Quantitative measures
Quantitativemodelling
Reliability estimation
Statistical model checking
Systematic exploration
Model checking
description Model-based reliability estimation of systems can provide useful insights early in the development process. However, computational complexity of estimating metrics such as mean time to first failure (MTTFF), turnaround time (TAT), or other domain-based quantitative measures can be prohibitive both in time, space, and precision. In this article, we present an alternative to exhaustive model exploration, as in probabilistic model checking, and partial random exploration, as in statistical model checking. Our hypothesis is that a (carefully crafted) partial systematic exploration of a system model can provide better bounds for these quantitative model metrics at lower computation cost. We present a novel automated technique for metric estimation that combines simulation, invariant inference, and probabilistic model checking. Simulation produces a probabilistically relevant set of traces from which a state invariant is inferred. The invariant characterises a partial model, which is then exhaustively explored using probabilistic model checking. We report on experiments that suggest that metric estimation using this technique (for both fully probabilistic models and those exhibiting nondeterminism) can be more effective than (full-model) probabilistic and statistical model checking, especially for system models for which the events of interest are rare. © 2016 ACM.
format JOUR
author Pavese, E.
Braberman, V.
Uchitel, S.
author_facet Pavese, E.
Braberman, V.
Uchitel, S.
author_sort Pavese, E.
title Less is more: Estimating probabilistic rewards over partial system explorations
title_short Less is more: Estimating probabilistic rewards over partial system explorations
title_full Less is more: Estimating probabilistic rewards over partial system explorations
title_fullStr Less is more: Estimating probabilistic rewards over partial system explorations
title_full_unstemmed Less is more: Estimating probabilistic rewards over partial system explorations
title_sort less is more: estimating probabilistic rewards over partial system explorations
url http://hdl.handle.net/20.500.12110/paper_1049331X_v25_n2_p_Pavese
work_keys_str_mv AT pavesee lessismoreestimatingprobabilisticrewardsoverpartialsystemexplorations
AT brabermanv lessismoreestimatingprobabilisticrewardsoverpartialsystemexplorations
AT uchitels lessismoreestimatingprobabilisticrewardsoverpartialsystemexplorations
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