Systems of Graph Formulas and their Equivalence to Alternating Graph Automata

Graph-based modeling plays a fundamental role in many areas of computer science. In this paper, we introduce systems of graph formulas with variables for specifying graph properties; this notion generalizes the graph formulas introduced in earlier work by incorporating recursion. We show that model that extends traditional finite-state these formula systems have the same expressive power as alternating graph automata, a computational automata to graphs, and allows both existential and universal states. In particular, we provide a bidirectional translation between formula systems and alternating graph automata, proving their equivalence in specifying graph languages. This result implies that alternating graph automata can be naturally represented using logic-based formulations, thus bridging the gap between automata-theoretic and logic-based approaches to graph language specification.

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Publication Details

Journal
Electronic Proceedings in Theoretical Computer Science
Published
2026-01-06
DOI
https://doi.org/10.4204/eptcs.440.4
Primary Topic
Model-Driven Software Engineering Techniques
Type
article
Field-Weighted Citation Impact
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article

Systems of Graph Formulas and their Equivalence to Alternating Graph Automata

Frank Drewes, Mark Minas, Berthold Hoffmann
Electronic Proceedings in Theoretical Computer Science
Model-Driven Software Engineering Techniques
article

Systems of Graph Formulas and their Equivalence to Alternating Graph Automata

Frank Drewes, Mark Minas, Berthold Hoffmann
article en

Abstract

Graph-based modeling plays a fundamental role in many areas of computer science. In this paper, we introduce systems of graph formulas with variables for specifying graph properties; this notion generalizes the graph formulas introduced in earlier work by incorporating recursion. We show that model that extends traditional finite-state these formula systems have the same expressive power as alternating graph automata, a computational automata to graphs, and allows both existential and universal states. In particular, we provide a bidirectional translation between formula systems and alternating graph automata, proving their equivalence in specifying graph languages. This result implies that alternating graph automata can be naturally represented using logic-based formulations, thus bridging the gap between automata-theoretic and logic-based approaches to graph language specification.

Electronic Proceedings in Theoretical Computer ScienceVol. 440
University of Bremen (DE), Universität der Bundeswehr München (DE), Umeå University (SE)
Openalex Percentile: Top 97%
Model-Driven Software Engineering Techniques
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