From Transition Systems to Variability Models and from Lifted Model Checking Back to UPPAAL
- Aleksandar Dimovski,
Research Output:
Conference Article in Proceeding or Book/Report chapter
Book chapter
Peer-reviewOpen access
Publication Information
Output type
Research Output:
Conference Article in Proceeding or Book/Report chapter
Book chapter
Peer-reviewHost publication Subtitle
Essays Dedicated to Kim Guldstrand Larsen on the Occasion of His 60th BirthdayOriginal language
EnglishPages from-to (Number of pages)
Pages 249-268Publication milestones
- Published - 2017
Publication status
Published - 2017
Publisher
Springer, United States, GermanyBook series
- Book series name: Lecture Notes in Computer Science
Volume: 10460
ISSN: 0302-9743
ISBN (Print)
978-3-319-63120-2ISBN (Electronic)
978-3-319-63121-9Publication IDs
- Scopus: 85028029668
Host publication title
Models, Algorithms, Logics and ToolsAbstract
Variational systems (system families) allow effective building of many custom system variants for various configurations. Lifted (family-based) verification is capable of verifying all variants of the family simultaneously, in a single run, by exploiting the similarities between the variants. These algorithms scale much better than the simple enumerative “brute-force” way. Still, the design of family-based verification algorithms greatly depends on the existence of compact variability models (state representations). Moreover, developing the corresponding family-based tools for each particular analysis is often tedious and labor intensive.
In this work, we make two contributions. First, we survey the history of development of variability models of computation that compactly represent behavior of variational systems. Second, we introduce variability abstractions that simplify variability away to achieve efficient lifted (family-based) model checking for real-time variability models. This reduces the cost of maintaining specialized family-based real-time model checkers. Real-time variability models can be model checked using the standard UPPAAL. We have implemented abstractions as syntactic source-to-source transformations on UPPAAL input files, and we illustrate the practicality of this method on a real-time case study.
Both authors are supported by The Danish Council for Independent Research under a Sapere Aude project, VARIETE.
In this work, we make two contributions. First, we survey the history of development of variability models of computation that compactly represent behavior of variational systems. Second, we introduce variability abstractions that simplify variability away to achieve efficient lifted (family-based) model checking for real-time variability models. This reduces the cost of maintaining specialized family-based real-time model checkers. Real-time variability models can be model checked using the standard UPPAAL. We have implemented abstractions as syntactic source-to-source transformations on UPPAAL input files, and we illustrate the practicality of this method on a real-time case study.
Both authors are supported by The Danish Council for Independent Research under a Sapere Aude project, VARIETE.
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Accepted author manuscript, 589.21 KB
