An iterative framework for simulation conformance. MAGIC is a software verification project for C source code which verifies conformance of software components against state-machine specifications. To this aim, MAGIC extracts abstract software models using predicate ahstraction, and resolves the inherent trade-off between model accuracy and scalability by an iterative abstraction refinement methodology. This paper presents the core principles implemented in the MAGIC verification engine, i.e., specification conformance using simulation and abstraction refinement. Viewing counterexamples as winning strategies in a simulation game between the implementation and the specification, we describe an algorithm where abstractions are refined on the basis of multiple winning strategies simultaneously. The refinement process is iterated until either a conformance with the specification is established, or a strategy to violate the specification is found to be realizable. In addition to the increase in expressiveness achieved by using simulation instead of trace containment, experimental results using OpenSSL indicate that our approach can lead to orders of magnitude improvement in verification time.

References in zbMATH (referenced in 38 articles , 1 standard article )

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  1. Antonino, Pedro; Gibson-Robinson, Thomas; Roscoe, A. W.: Efficient verification of concurrent systems using local-analysis-based approximations and SAT solving (2019)
  2. Czerwinski, Wojciech; Hofman, Piotr; Zetzsche, Georg: Unboundedness problems for languages of vector addition systems (2018)
  3. Gupta, Aarti; Kahlon, Vineet; Qadeer, Shaz; Touili, Tayssir: Model checking concurrent programs (2018)
  4. Kaiser, Alexander; Kroening, Daniel; Wahl, Thomas: Lost in abstraction: monotonicity in multi-threaded programs (2017)
  5. Gange, Graeme; Navas, Jorge A.; Schachte, Peter; Søndergaard, Harald; Stuckey, Peter J.: A complete refinement procedure for regular separability of context-free languages (2016)
  6. Song, Fu; Touili, Tayssir: Model checking dynamic pushdown networks (2015)
  7. Pan, Haiyu; Cao, Yongzhi; Zhang, Min; Chen, Yixiang: Simulation for lattice-valued doubly labeled transition systems (2014)
  8. Gange, Graeme; Navas, Jorge A.; Stuckey, Peter J.; Søndergaard, Harald; Schachte, Peter: Unbounded model-checking with interpolation for regular language constraints (2013)
  9. Bae, Kyungmin; Meseguer, José: A rewriting-based model checker for the linear temporal logic of rewriting (2012)
  10. Donaldson, Alastair F.; Kaiser, Alexander; Kroening, Daniel; Tautschnig, Michael; Wahl, Thomas: Counterexample-guided abstraction refinement for symmetric concurrent programs (2012)
  11. Fiadeiro, José; Lopes, Antónia; Abreu, João: A formal model for service-oriented interactions (2012)
  12. Palikareva, Hristina; Ouaknine, Joël; Roscoe, A. W.: SAT-solving in CSP trace refinement (2012)
  13. Beneš, N.; Brim, L.; Buhnova, B.; Černá, I.; Sochor, J.; Vařeková, P.: Partial order reduction for state/event LTL with application to component-interaction automata (2011)
  14. Braghin, Chiara; Sharygina, Natasha; Barone-Adesi, Katerina: A model checking-based approach for security policy verification of mobile systems (2011)
  15. Bae, Kyungmin; Meseguer, José: The linear temporal logic of rewriting Maude model checker (2010)
  16. de Boer, Frank S.; Grabe, Immo: Automated deadlock detection in synchronized reentrant multithreaded call-graphs (2010)
  17. Plagge, Daniel; Leuschel, Michael: Seven at one stroke: LTL model checking for high-level specifications in B, Z, CSP, and more (2010) ioport
  18. Touili, Tayssir; Atig, Mohamed Faouzi: Verifying parallel programs with dynamic communication structures (2010)
  19. Atig, Mohamed Faouzi; Touili, Tayssir: Verifying parallel programs with dynamic communication structures (2009)
  20. Beneš, Nikola; Brim, Lubos; Černá, Ivana; Sochor, Jiri; Vařeková, Pavlina; Zimmerova, Barbora: Partial order reduction for state/event LTL (2009)

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