Introducing The Maximum Common Bigraph Problem

Bigraph reactive systems offer a powerful and flexible mathematical framework for modelling both spatial and non-spatial relationships between agents, with practical applications in domains such as smart technologies, networks, sensor systems, and biology.While bigraphs theoretically support the identification of bisimilar agents, by simulating and comparing their corresponding minimal contextual transition systems, no known algorithm exists for computing the maximum shared structure between two bigraphs, an essential prerequisite for determining the set of possible transitions for a given agent state.In this work, we provide a definition of the maximum common bigraph problem, and present an adaptation of the McSplit maximum common induced subgraph algorithm to compute the maximum common bigraph between two bigraph states.Our approach opens a path toward supporting bisimulation checking in bigraph-based tools, which have been leveraged in other modelling paradigms for simplification, optimisation, and verification of models.

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Publication Details

Journal
Electronic Proceedings in Theoretical Computer Science
Published
2026-01-06
DOI
https://doi.org/10.4204/eptcs.440.3
Primary Topic
Constraint Satisfaction and Optimization
Type
article
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article

Introducing The Maximum Common Bigraph Problem

James Trimble, Ciaran McCreesh, Michele Sevegnani, Kyle Burns
Electronic Proceedings in Theoretical Computer Science
Constraint Satisfaction and Optimization
article

Introducing The Maximum Common Bigraph Problem

James Trimble, Ciaran McCreesh, Michele Sevegnani, Kyle Burns
article en

Abstract

Bigraph reactive systems offer a powerful and flexible mathematical framework for modelling both spatial and non-spatial relationships between agents, with practical applications in domains such as smart technologies, networks, sensor systems, and biology.While bigraphs theoretically support the identification of bisimilar agents, by simulating and comparing their corresponding minimal contextual transition systems, no known algorithm exists for computing the maximum shared structure between two bigraphs, an essential prerequisite for determining the set of possible transitions for a given agent state.In this work, we provide a definition of the maximum common bigraph problem, and present an adaptation of the McSplit maximum common induced subgraph algorithm to compute the maximum common bigraph between two bigraph states.Our approach opens a path toward supporting bisimulation checking in bigraph-based tools, which have been leveraged in other modelling paradigms for simplification, optimisation, and verification of models.

Electronic Proceedings in Theoretical Computer ScienceVol. 440
University of Glasgow (GB)
Openalex Percentile: Top 96%
Constraint Satisfaction and Optimization
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Introducing The Maximum Common Bigraph Problem — James Trimble, Ciaran McCreesh, et al. · Electronic Proceedings in Theoretical Computer Science (2026) | TGRS Research Map | TGRS