Sequential Schemes for Frequentist Estimation of Properties in Statistical Model Checking

No Thumbnail Available
File version
Author(s)
Jegourel, Cyrille
Sun, Jun
Dong, Jin Song
Griffith University Author(s)
Primary Supervisor
Other Supervisors
Editor(s)
Date
2019
Size
File type(s)
Location
License
Abstract

Statistical Model Checking (SMC) is an approximate verification method that overcomes the state space explosion problem for probabilistic systems by Monte Carlo simulations. Simulations might, however, be costly if many samples are required. It is thus necessary to implement efficient algorithms to reduce the sample size while preserving precision and accuracy. In the literature, some sequential schemes have been provided for the estimation of property occurrence based on predefined confidence and absolute or relative error. Nevertheless, these algorithms remain conservative and may result in huge sample sizes if the required precision standards are demanding. In this article, we compare some useful bounds and some sequential methods. We propose outperforming and rigorous alternative schemes based on Massart bounds and robust confidence intervals. Our theoretical and empirical analyses show that our proposal reduces the sample size while providing the required guarantees on error bounds.

Journal Title

ACM Transactions on Modeling and Computer Simulation

Conference Title
Book Title
Edition
Volume

29

Issue

4

Thesis Type
Degree Program
School
Publisher link
Patent number
Funder(s)
Grant identifier(s)
Rights Statement
Rights Statement
Item Access Status
Note
Access the data
Related item(s)
Subject

Theory of computation

Information systems

Artificial intelligence

Applied mathematics

Science & Technology

Technology

Physical Sciences

Computer Science, Interdisciplinary Applications

Mathematics, Applied

Persistent link to this record
Citation

Jegourel, C; Sun, J; Dong, JS, Sequential Schemes for Frequentist Estimation of Properties in Statistical Model Checking, ACM Transactions on Modeling and Computer Simulation, 2019, 29 (4)

Collections