Uppaal

Uppaal is an integrated tool environment for modeling, simulation and verification of real-time systems, developed jointly by Basic Research in Computer Science at Aalborg University in Denmark and the Department of Information Technology at Uppsala University in Sweden. It is appropriate for systems that can be modeled as a collection of non-deterministic processes with finite control structure and real-valued clocks, communicating through channels or shared variables [WPD94, LPW97b]. Typical application areas include real-time controllers and communication protocols in particular, those where timing aspects are critical.


References in zbMATH (referenced in 654 articles , 3 standard articles )

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  1. Aman, Bogdan; Ciobanu, Gabriel: Dynamics of reputation in mobile agents systems and weighted timed automata (2022)
  2. André, Étienne; Coquard, Emmanuel; Fribourg, Laurent; Jerray, Jawher; Lesens, David: Parametric schedulability analysis of a launcher flight control system under reactivity constraints (2021)
  3. André, Étienne; Lime, Didier; Ramparison, Mathias; Stoelinga, Mariëlle: Parametric analyses of attack-fault trees (2021)
  4. Basile, Davide; Fantechi, Alessandro; Rucher, Luigi; Mandò, Gianluca: Analysing an autonomous tramway positioning system with the \textscUppaalstatistical model checker (2021)
  5. Bennour, Imed Eddine: Formal verification of timed synchronous dataflow graphs using lustre (2021)
  6. Cassez, Franck; Jensen, Peter Gjøl; Guldstrand, Larsen Kim: Verification and parameter synthesis for real-time programs using refinement of trace abstraction (2021)
  7. Clemente, Lorenzo; Lasota, Sławomir: Reachability relations of timed pushdown automata (2021)
  8. Ho, Hsi-Ming; Zhou, Ruoyu; Jones, Timothy M.: Timed hyperproperties (2021)
  9. Lund, Sebastian; van Diepen, Jesper; Larsen, Kim G.; Muñiz, Marco; Ringholm Jørgensen, Tobias; Skaarup Daa Andersen, Tobias: An integer static analysis for better extrapolation in Uppaal (2021)
  10. Lu, Zhihao; Wang, Rui; Kong, Hui; Guan, Yong; Shi, Zhiping: Formal verification of Ptolemy discrete event model (2021)
  11. Mancini, Toni; Mari, Federico; Massini, Annalisa; Melatti, Igor; Tronci, Enrico: On checking equivalence of simulation scripts (2021)
  12. Rubio, Rubén; Martí-Oliet, Narciso; Pita, Isabel; Verdejo, Alberto: Strategies, model checking and branching-time properties in Maude (2021)
  13. Szymoniak, Sabina: Security protocols analysis including various time parameters (2021)
  14. Xie, Wanling; Zhu, Huibiao; Xu, Qiwen: A process calculus BigrTiMo of mobile systems and its formal semantics (2021)
  15. Ait Oumeziane, F.; Kara, R.; Amari, S.: Formal analysis and control of timed automata with guards using (max, +) and (min, +) algebras (2020)
  16. Aman, Bogdan; Ciobanu, Gabriel: Employing costs in multiagent systems with timed migration and timed communication (2020)
  17. Baresi, L.; Bersani, M. M.; Marconi, F.; Quattrocchi, G.; Rossi, M.: Using formal verification to evaluate the execution time of Spark applications (2020)
  18. Bersani, Marcello M.; Soldo, Matteo; Menghi, Claudio; Pelliccione, Patrizio; Rossi, Matteo: PuRSUE -- from specification of robotic environments to synthesis of controllers (2020)
  19. Fahrenberg, Uli; Legay, Axel; Quaas, Karin: Computing branching distances with quantitative games (2020)
  20. Fraser, Douglas; Giaquinta, Ruben; Hoffmann, Ruth; Ireland, Murray; Miller, Alice; Norman, Gethin: Collaborative models for autonomous systems controller synthesis (2020)

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