DocumentCode
1835462
Title
Random Relaxation Abstractions for Bounded Reachability Analysis of Linear Hybrid Automata: Distributed Randomized Abstractions in Model Checking
Author
Jha, Sumit Kumar ; Jha, Susmit
Author_Institution
Sch. of Comput. Sci., Carnegie Mellon Univ., Pittsburgh, PA
fYear
2008
fDate
3-5 Dec. 2008
Firstpage
147
Lastpage
153
Abstract
The state of the art in the validation of linear hybrid automata has been restricted to systems with tens of variables because of the extremely high computational complexity of manipulating polyhedra in high dimensions. In this paper, we present a distributed algorithm that constructs low dimensional randomized over-approximate relaxation abstractions of linear hybrid automata and analyzes these low dimensional hybrid automata to perform bounded model checking of the original high dimensional linear hybrid automata. Our algorithm relies on the feasibility preserving nature of random linear relaxations and the Johnson Lindenstrauss lemma to show that random relaxations preserve the infeasibility of linear constraints with a nonzero probability.
Keywords
automata theory; computational complexity; distributed algorithms; formal verification; probability; randomised algorithms; reachability analysis; Johnson Lindenstrauss lemma; bounded reachability analysis; computational complexity; distributed algorithm; distributed randomized linear relaxation abstraction; linear hybrid automata; model checking; nonzero probability; Algorithm design and analysis; Automata; Biological system modeling; Computational complexity; Computer science; Concrete; Embedded software; Linear programming; Reachability analysis; Systems engineering and theory; Cyber-Physical Systems; Distributed Algorithms; Hybrid Systems; Johnson Lindenstrauss lemma; Linear Hybrid Automata; Model Checking; Randomized Algorithms; Verification;
fLanguage
English
Publisher
ieee
Conference_Titel
High Assurance Systems Engineering Symposium, 2008. HASE 2008. 11th IEEE
Conference_Location
Nanjing
ISSN
1530-2059
Print_ISBN
978-0-7695-3482-4
Type
conf
DOI
10.1109/HASE.2008.38
Filename
4708873
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