Using graph transformations to specify the dynamics of distributed systems and networks, we require a precise understanding of concurrency. Negative application conditions (NACs) are an essential means for controlling the application of rules, extending our ability to model complex systems. A classical notion of concurrency in graph transformation is based on shift equivalence and its representation by canonical derivations, i.e., normal forms of the shift operation anticipating independent steps. These concepts are lifted to graph transformation systems with NACs and it is shown that canonical derivations exist for so-called incremental NACs
State-of-the-art approaches to controlled graph rewriting focus on the specification of an external ...
AbstractGraph manipulations are formalized as graph derivations within the framework of graph gramma...
Graph grammars (or graph transformation systems), originally introduced as a generalization of strin...
In several application areas, Graph Transformation Systems (GTSs) are equipped with Negative Applica...
A rich concurrent semantics has been developed along the years for graphtransformation systems, ofte...
Graph Transformation Systems (GTSs) are an integrated formal speci cation framework for modelling an...
Abstract. The goal of this paper is the generalization of embedding and confluence results for graph...
peer reviewedSwitch equivalence for transformation systems has been successfully used in many domain...
In modelling complex systems with graph grammars (GGs), it is convenient to restrict the application...
Graph transformation systems are widely recognized as a powerful formalism for the specification of ...
Abstract: This paper introduces negative application conditions for reconfigurable place/transition ...
M-adhesive categories provide an abstract framework for a large variety of specification frameworks ...
Switch equivalence for transformation systems has been successfully used in many domains for the ana...
In the framework of graph transformation systems with Negative Application Conditions (NACs) the cla...
This paper introduces negative application conditions for reconfigurable place/transition nets. The...
State-of-the-art approaches to controlled graph rewriting focus on the specification of an external ...
AbstractGraph manipulations are formalized as graph derivations within the framework of graph gramma...
Graph grammars (or graph transformation systems), originally introduced as a generalization of strin...
In several application areas, Graph Transformation Systems (GTSs) are equipped with Negative Applica...
A rich concurrent semantics has been developed along the years for graphtransformation systems, ofte...
Graph Transformation Systems (GTSs) are an integrated formal speci cation framework for modelling an...
Abstract. The goal of this paper is the generalization of embedding and confluence results for graph...
peer reviewedSwitch equivalence for transformation systems has been successfully used in many domain...
In modelling complex systems with graph grammars (GGs), it is convenient to restrict the application...
Graph transformation systems are widely recognized as a powerful formalism for the specification of ...
Abstract: This paper introduces negative application conditions for reconfigurable place/transition ...
M-adhesive categories provide an abstract framework for a large variety of specification frameworks ...
Switch equivalence for transformation systems has been successfully used in many domains for the ana...
In the framework of graph transformation systems with Negative Application Conditions (NACs) the cla...
This paper introduces negative application conditions for reconfigurable place/transition nets. The...
State-of-the-art approaches to controlled graph rewriting focus on the specification of an external ...
AbstractGraph manipulations are formalized as graph derivations within the framework of graph gramma...
Graph grammars (or graph transformation systems), originally introduced as a generalization of strin...