Model Driven Engineering 

Schedule

Week

Date

Type

Room

Subject

1 Friday 26 September 13:45 - 15:45 Theory G.016 Domain-Specific Modelling: the need for Modelling Language Engineering
2 Friday 3 October 13:45 - 15:45 Theory G.016 Modelling Languages: Meta-Modelling (and a bit of concrete syntax)
3 Friday 10 October 13:45 - 15:45 Lab Session G.016 MetaDepth: Metamodelling and Operational Semantics
3 Friday 10 October 16:00 - 18:00 Lab Session G.027 MetaDepth: Metamodelling and Operational Semantics -- assignment 1
4 Friday 17 October 13:45 - 15:45 Theory G.016 Modelling Languages: Concrete Syntax; the Meaning of Semantics
4 Friday 17 October 16:00 - 18:00 Lab Session G.027 AToMPM: Metamodelling -- assignment 2
5 Tuesday 21 October 23:59 Deadline Assignment 1: metaDepth (metamodelling + operational semantics)
5 Friday 24 October 13:45 - 15:45 Lab Session G.027 AToMPM: rule-based transformation for Operational and Denotational Semantics -- assignment 3
5 Friday 24 October 16:00 - 18:00 Lab Session G.027 AToMPM: rule-based transformation for Operational and Denotational Semantics -- assignment 4
6 Tuesday 28 October 23:59 Deadline Assignment 2: AToMPM (metamodelling)
6 Friday 31 October 13:45 - 15:45 Theory G.016 The Meaning of Semantics; Model Transformation
6 Friday 31 October 16:00 - 18:00 Lab Session G.027 Work on Assignment 3 and 4
7 Fridag 7 November 9:00-13:00 Evaluation G.330 Assignment 1 and 2
7 Friday 7 November 14:00 Deadline Assignment 3: AToMPM (operational semantics)
7 Friday 7 November 13:45 - 15:45 Theory G.016 Model Transformation
7 Friday 7 November 16:00 - 18:00 Project Topics G.016 Presentation of project topics
8 Friday 14 November 14:45 - 15:30 Theory G.016 Putting it all together (with processes): the FTG+PM
8 Friday 14 November 15:30 - 15:45 Theory G.016 Overview of micro theory exam material
8 Friday 14 November 16:00 - 18:00 Lab Session G.027 Code Generation - assignment 5
9 Friday 21 November 15:00 - 15:45 Evaluation G.016 micro theory exam
9 Friday 21 November 16:00 - 18:00 Lab Session G.027 Code Generation, Demo of Simon's Solution
9 Friday 21 November 16:00 - 18:00 Project G.116/G.330/G.317 no class, individual meetings about project
9 Friday 21 November 14:00 Deadline Assignment 4: AToMPM (denotational semantics)
10 Friday 28 November 13:45 - 15:45 Project G.116/G.330/G.317 no class, individual meetings about project
10 Friday 28 November 16:00 - 18:00 Project G.116/G.330/G.317 no class, individual meetings about project
10 Friday 28 November 14:00 Deadline Assignment 5: Code Generation
11 Friday 5 December 9:00 - 13:00 Evaluation G.330 Assignment 3, 4, and 5
11 Friday 5 December 13:45 - 15:45 Project G.116/G.330/G.317 no class, individual meetings about project
11 Friday 5 December 16:00 - 17:00 Project G.116/G.330/G.317 no class, individual meetings about project
12 Friday 12 December 13:45 - 15:45 Project G.116/G.330/G.317 no class, individual meetings about project
12 Friday 12 December 16:00 - 18:00 Project G.116/G.330/G.317 no class, individual meetings about project
13 Thursday 18 December 23:59 Deadline Reading Report on personal "project page"
13 Friday 19 December 13:45 - 15:45 Evaluation G.016 Project "reading/planned work" presentations
13 Friday 19 December 16:00 - 18:00 Evaluation G.016 Project "reading/planned work" presentations
Wednesday 21 January 23:59 Deadline Project Report and Code on personal "project page"
Thursday 22 January 9:00 - 10:20 Evaluation G.015 Project presentations
Thursday 22 January 10:30 - 12:00 Evaluation G.015 Project presentations
Thursday 22 January 13:00 - 14:20 Evaluation G.015 Project presentations
Thursday 22 January 14:30 - 15:50 Evaluation G.015 Project presentations
Thursday 22 January 16:00 - 18:00 Evaluation G.015 Project presentations

A project will typically contain a "reading" part and a "building" part. The first part will describe (in a report and a presentation) what you found in the literature and/or by trying/evaluating existing tools. The second part will describe your own (prototype) development/implementation (possibly using MDE tools). The whole project will be due during the January 2015 exam period. A date will be fixed for the project presentations to be attended by all (and evaluated by all). The "reading" presentations will be held during the last lecture slot of the semester. After around mid November, there will be no more formal lectures, but rather individual meetings to discuss project progress. Those individual meetings (by appointment, made via e-mail) will actually start the moment project topics have been chosen.

The micro theory exam will cover the highlighted papers below. It is intended to refresh your knowledge of the topics covered in the theory lectures. Note that this year, this "closed book" written exam does not cover model transformation as that is adequately covered in the assignments.

  Grading Scheme

Micro theory exam written 10%
Assignments 10% per assignment 50%
Project reading part (7% on report, 3% on presentation) 10%
Project project part (10% on report, 10% on work, 10% on presentation) 30%

Note that the assignments are not optional. You must complete all assignments before you can start on your project.


  Lectures

Domain-Specific Modelling Languages: the need for Modelling Language Engineering
Presentation [pdf]. This presentation covers Domain-Specific Modelling (DSM) and Meta-Modelling (and some more not covered in class).

Modelling Languages: Meta-Modelling (Abstract Syntax)
Thomas Kühne. Matters of (Meta-) Modeling. Software and System Modeling 5(4): 369-385. 2006. [pdf].
Linguistic Conformance Check (as implemented in the Modelverse).
Colin Atkinson and Thomas Kühne. Rearchitecting the UML infrastructure. ACM Transactions on Modeling and Computer Simulation (TOMACS). Volume 12, Issue 4. pp 290 - 321. October 2002. [pdf].
Jean-Marie Favre. Megamodelling and Etymology. Proceedings of Dagstuhl Seminar 05161 - Transformation Techniques in Software Engineering. 2006. [pdf].
Jonathan Sprinkle, Bernhard Rumpe, Hans Vangheluwe, and Gabor Karsai. Metamodelling: State of the Art and Research Challenges. In Model-Based Engineering of Embedded Real-Time Systems. Volume 6100 of Lecture Notes in Computer Science, chapter 3, pages 57-76. Springer 2011. [pdf].

Modelling Languages: Concrete Visual Syntax
Presentation [pdf].
G. Costagliola, A. Delucia, S. Orefice and G. Polese. A Classification Framework to Support the Design of Visual Languages, Journal of Visual Languages and Computing, Volume 13, Issue 6, December 2002, pages 573-600. [pdf].
Daniel L. Moody. The "Physics" of Notations: Toward a Scientific Basis for Constructing Visual Notations in Software Engineering. IEEE Transactions on Software Engineering, vol. 35, no. 6, pp. 756-779, November/December, 2009. [pdf].

Modelling Languages: Semantics
Presentation [pdf].
David Harel, Bernhard Rumpe. Meaningful Modeling: What's the Semantics of "Semantics"?, IEEE Computer, vol. 37, no. 10, pp. 64-72, October, 2004. [pdf].
David Harel, Bernhard Rumpe. Syntax, Semantics, and all that stuff (the original technical report on which the IEEE Computer paper is based).
Hans Vangheluwe and Juan de Lara. Computer Automated Multi-Paradigm Modelling for Analysis and Design of Traffic Networks. Winter Simulation Conference 2004, pages 249-258. [pdf].

Model Transformation
Model Transformation. Presentation [pdf].

Putting it all together: the FTG+PM
Formalism Transformation Graph and Process Model. Presentation [pdf].

  Tools

metaDepth, a framework for multi-level meta-modelling

A Tool for Multi-formalism and Meta-Modelling: AToM3.
Tutorials [basic] and [slightly more advanced] on meta-modelling with AToM3.
Use Juan de Lara's in-depth AToM3 programming tutorial: the AToM3 Python API for details about AToM3's internal representation of models, about constraints and actions, and about manipulation of concrete syntax (visual) objects.

AToMPM, A Tool for Multi-Paradim Modelling.
To whet your appetite: the AToMPM teaser video for the MoDELS 2013 conference.
A tutorial on AToMPM can be found here.
The AToMPM user manual [pdf].

  Examples

The examples page will be updated after each practical session. It will demonstrate the techniques learned using a simple, but complete, example.

  Assignments

  Projects

Topics
A list of tentative project topics can be found here.

Report info
Your project report should be written in LaTeX. If you're new to LaTeX, many tutorials such as this LaTeX primer are available.
You must use Elsevier's elsarticle style. You should download the elsarticle.zip archive. elsdoc.pdf contains the user documentation and elsarticle-template-harv.tex is the document template you should use as a starting point for your report.
Your report should contain at least the following:
  • A title capturing the essence of your work.
  • Author name, affiliation, and contact information.
  • An abstract presenting the paper's contribution. Based on the abstract, readers will decide whether or not your paper is worth reading.
  • Keywords summarising the paper.
  • A introduction presenting the problem/context. The introduction section should end with an overview of the rest of the paper. For example: ``Section 2 gives an overview of related work. Section 3 presents the design of our new architecture. ... Section 7 concludes.
  • A related work section, with references. If it is not elaborate enough to warrant its own section, related work may go into the introduction section.
  • A number of sections presenting the details of your contribution. This could contain details of your design.
  • If applicable, a section presenting the experience with using your work, including a performance evaluation.
  • A comparison of your work with that of others (what is new/better/...).
  • Conclusions and future work.
  • A bibliography. You must use bibTeX!
Note that your report should be a cross between a journal publication (where only the essence of the novel contribution should be presented) and a technical report (where technical details may be explained and there is no limitation on the number of pages used).

Presentation info

Project Material
Addis Alemayehu Gebremichael BPMN project page
Andrea Zaccara Transformation of the visual Timeline formalism project page
Brent van Bladel Using Groove for analysing RPGame models project page
Hannu Viinikainen Xtext/Xbase for RPGame modelling and semantics project page
Jeroen De Busser Automatic transformation of AToMPM models and transformations to Groove project page
Konstantinos Theodorakos Optimization and parallelization of CBD models project page
Michaël Deckers Visual modelling environment for CBD's project page
Nicolas Demarbaix Causal Block Diagram (CBD): compiler to LaTeX and DEVS​ project page
Pieter Aerts Domain-Specific Modelling of complex User Interfaces project page
Raha Naseri (RPG) modelling language engineering with WebGME project page
Sara Sali Multi-level modelling in Melanee project page
Srinivasan Balakrishan YAWL project page
Stefaan Kenis UPPAAL for analysis of RPG models project page
Thomas Pinna Efficient graph matching project page
Timmy Nelen Explicit modelling of DEVS experiments (in AToMPM) (repeated model simulation, statistics gathering) project page
Tom Wijsman Feature modelling with Clafer project page
Yangmei Jia Reachability analysis of Petrinets models in AToMPM using model transformations project page
Yves Maris Modelica project page