Practical Exploration of Polyhedral Model Checking

📅 2025-06-25
📈 Citations: 0
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🤖 AI Summary
This work addresses the challenge of verifying spatial properties of polyhedral models (e.g., triangular/tetrahedral meshes). We propose an enhanced model-checking approach based on the spatial logic SLCS. Our method treats model-checking outcomes as atomic propositions fed back into the original model, enabling semantic enrichment and structural minimization. This feedback loop significantly reduces the length of subsequent spatial property specification formulas and uncovers implicit spatial structural features. Grounded in closure-space semantics, the approach is implemented within the PolyLogicA model checker and integrated with PolyVisualizer for intuitive, semantically faithful visualization. Experimental evaluation demonstrates that our technique preserves formal rigor while improving both the efficiency and interpretability of spatial analysis. It establishes a novel paradigm for automated verification and visualization in computer graphics and geometric modeling.

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📝 Abstract
This work explores the potential of spatial model checking of polyhedral models on a number of selected examples. In computer graphics polyhedral models can be found in the form of triangular surface meshes of tetrahedral volume meshes which are abundant. Spatial model checking is used to analyse spatial properties of interest of such models expressed in a suitable spatial logic. The original contributions of this paper are twofold. First we illustrate how a polyhedral model can be enriched by adding the outcome of one model checking session as an atomic proposition to the original model. This is useful as it provides a way to reduce the length of formulas to check on such models and to obtain more insightful results when these models are used for graphical visualisation. Second we show that this form of enrichment also enables practical model minimisation providing deeper insights in the basic spatial structure of the model in terms of the spatial logic properties it enjoys. This work is performed in the context of the geometric spatial model checker PolyLogicA, the visualizer PolyVisualizer and the polyhedral semantics of the Spatial Logic for Closure Spaces SLCS.
Problem

Research questions and friction points this paper is trying to address.

Explores spatial model checking for polyhedral models
Enriches models with model checking outcomes for insights
Enables model minimization to understand spatial structure
Innovation

Methods, ideas, or system contributions that make the work stand out.

Enriching polyhedral models with model checking outcomes
Reducing formula length for insightful visualization
Enabling practical model minimization via enrichment