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Generating Examples for Knowledge Abstraction in MDE: a Multi-Objective Framework.

2015· article· en· 4 citations· W2397418040 on OpenAlex

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A frame that forgets how it found something cannot be audited. These are the routes that admitted this work.

Canadian affiliationAn author listed a Canadian institution. This is the only route the usual frame has.

The three-model screen

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All three models called this out of scope.

stratum: aff_core · design weight: 5595.24 (the sample is stratified; any rate computed without the weight is wrong)
Claude Opus 4.8OUT
genre: empirical
about Canada: no
confidence: high

Model-driven software engineering method for generating model examples; a software technique, not a study of research.

GPT-5.6 (high)OUT
genre: empirical
about Canada: no
confidence: high

The paper develops an automated model-generation framework for software engineering, not a study of research itself.

Grok 4.5OUT
genre: empirical
about Canada: no
confidence: high

Software-engineering method for generating MDE model examples; SE tooling, not study of how research is done.

Abstract

Model-Driven Engineering (MDE) aims at raising the level of abstraction in software development and therefore relies on task automation. To foster automation, MDE promotes the use of specific domain languages (DSLs), essential to express ideas at the domain level. Furthermore, to ease communication between computer science and other fields, modelers employ model examples (i.e., selected metamodel instances) to illustrate and refine their conceptual ideas. But, if the use of model examples has shown its efficiency, it is still an ad hoc process which requires automation. In this paper, we briefly depict the thorough example-toknowledge learning process. Then, we present a framework that produces, from a metamodel, a representative model example set with regards to a given coverage definition. To find the best trade-off between coverage and a necessary minimality objectives, we use a non-dominated genetic algorithm (NSGAII). We illustrated our method by generating a near-optimal set of models for the peculiar constraint learning task. We evaluated its efficiency comparing the resulting generated set with the best one issued from a raw random generation. Our encouraging preliminary results let us envision a deep study of the relation between various types of coverage and their impact on our ability to abstract knowledge from examples.

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The record

Venue
Topic
Model-Driven Software Engineering Techniques
Field
Computer Science
Canadian institutions
Université de Montréal
Funders
Keywords
MetamodelingComputer scienceAbstractionSoftware engineeringAutomationModel-driven architectureTask (project management)Process (computing)Domain (mathematical analysis)Set (abstract data type)Abstraction layerProgramming languageArtificial intelligenceTheoretical computer scienceMachine learningSoftware developmentSoftwareSystems engineeringEngineering
Has abstract in OpenAlex
yes