Automatic insertion point identification in model merging operations

Abstract

Automatic identification of an insertion point is done by comparisons defining the correspondence between elements of models. The sequence order of elements in the second model is analyzed to identify predecessor and successor elements of the element t. The comparison is used to identify a set of transferred predecessors (Ptrans), comprising elements of the first model which correspond to predecessor elements (PS) in the second model, and a set of transferred successors (Strans) comprising elements of the first model which correspond to successor elements (SS) in the second model. Then, positions of the elements x, y in the sequence order of the first model are compared with the positions of elements in the sets of transferred predecessors and successors (Ptrans, Strans). An edge between the elements x and y is identified as an insertion point.

Description

FIELD OF THE INVENTION[0001]This invention relates generally to automatic identification of insertion points in model merging operations. Methods, systems and computer programs are described for the automatic identification of insertion points in one model for specified elements of another model.BACKGROUND OF THE INVENTION[0002]Model-driven engineering (MDE) is a technique employed in various engineering fields such as software, system and data engineering. MDE involves the systematic use of models as primary engineering artifacts. For example, model-driven software development or model-driven business transformation relies on the use of models such as models defined in the Unified Modeling Language (UML). When dealing with such models, a model merging scenario often arises where two or more models have to be brought together in some way. One scenario for model merging is the improvement of an existing model by a reference model, where some parts of the existing model should be pres...

AI Technical Summary

Benefits of technology

This approach simplifies and enhances the identification of accurate insertion points, reducing manual effort and ensuring sequence order consistency, allowing for efficient integration of elements without violating sequential dependencies.

Problems solved by technology

This describes how the existence of certain types of correspondence between model elements can be used to select a suitable merging operation, but does not address the problem of identifying insertion points.

Again, however, the particular problem of insertion point identification is not addressed.

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