Transformation From Legal-marking Set to Admissible-marking Set of Petri Nets With Uncontrollable Transitions
ShouGuang Wang, Dan You, MengChu Zhou, and Carla Seatsu

TL;DR
This paper presents algorithms and theoretical foundations for transforming legal-marking sets into admissible-marking sets in Petri nets with uncontrollable transitions, enabling better control and safety analysis.
Contribution
It introduces new algorithms and theoretical insights for the equivalent transformation of linear constraints in Petri nets with uncontrollable transitions.
Findings
Algorithms for computing admissible-marking sets
Theoretical foundation for linear constraint transformation
Rules for transition priority in transformations
Abstract
Linear constraint transformation is an essential step to solve the forbidden state problem in Petri nets that contain uncontrollable transitions. This work studies the equivalent transformation from a legal-marking set to its admissible-marking set given such a net. First, the concepts of an escaping-marking set and a transforming marking set are defined. Based on them, two algorithms are given to compute the admissible-marking set and the transforming marking set, which establish the theoretical foundation for the equivalent transformation of linear constraints. Second, the theory about the equivalent transformation of a disjunction of linear constraints imposed to Petri nets with uncontrollable transitions is established. Third, two rules are given to decide the priority of transitions for transformation. Finally, the transformation procedure from a given linear constraint to a logic…
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Taxonomy
TopicsPetri Nets in System Modeling · Flexible and Reconfigurable Manufacturing Systems · Business Process Modeling and Analysis
