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54 Reverse Engineering – Recent Advances and Applications 24 Will-be-set-by-IN-TECH Miller, S. P., Tribble, A. C., Whalen, M. W. & Heimdahl, M. P. (2004). Proving the shalls early validation of requirements through formal methods, Department of Computer Science and Engineering . Moore, M. M. (1996). Rule-based detection for reverse engineering user interfaces, Proceedings of the Third Working Conference on Reverse Engineering, pages 42-8, Monterey, CA . Müller, H. A., Jahnke, J. H., Smith, D. B., Storey, M.-A., Tilley, S. R. & Wong, K. (2000). Reverse engineering: a roadmap, ICSE ’00: Proceedings of the Conference on The Future of Software Engineering, ACM, New York, NY, USA, pp. 47–60. Myers, B. A. (1991). Separating application code from toolkits: Eliminating the spaghetti of call-backs, School of Computer Science . Nielsen, J. (1993). Usability Engineering, Academic Press, San Diego, CA. Paiva, A. C. R., Faria, J. C. P. & Mendes, P. M. C. (eds) (2007). Reverse Engineered Formal Models for GUI Testing, 10th International Workshop on Formal Methods for Industrial Critical Systems. Berlin, Germany. SC4, I. S.-C. (1994). Draft International ISO DIS 9241-11 Standard, International Organization for Standardization. Shan, S. Y. & et al. (2009). Fast centrality approximation in modular networks. Stamelos, I., Angelis, L., Oikonomou, A. & Bleris, G. L. (2002). Code quality analysis in open source software development, Information Systems Journal 12: 43–60. Stoll, P., John, B. E., Bass, L. & Golden, E. (2008). Preparing usability supporting architectural patterns for industrial use. Computer science, Datavetenskap, Malardalen University, School of Innovation, Design and Engineering. Systa, T. (2001). Dynamic reverse engineering of Java software, Technical report, University of Tampere, Finland. Thimbleby, H. & Gow, J. (2008). Applying graph theory to interaction design, EIS 2007 pp. 501–519. Thomas, J. M. (1976). A complexity measure, Intern. J. Syst. Sci. 2(4): 308. Tidwell, J. (2005). Designing Interfaces: Patterns for Effective Interaction Design, O’ Reilly Media, Inc. Yoon, Y. S. & Yoon, W. C. (2007). Development of quantitative metrics to support UI designer decision-making in the design process, Human-Computer Interaction. Interaction Design and Usability, Springer Berlin / Heidelberg, pp. 316–324. Young, R. M., Green, T. R. G. & Simon, T. (1989). Programmable user models for predictive evaluation of interface designs, in K. Bice & C. Lewis (eds), CHI’89 Proceedings, ACM Press, NY, pp. 15–19.
1. Introduction MDA-Based Reverse Engineering Liliana Favre Universidad Nacional del Centro de la Provincia de Buenos Aires Comisión de Investigaciones Científicas de la Provincia de Buenos Aires Argentina Nowadays, almost companies are facing the problematic of having to modernize or replace their legacy software systems. These old systems have involved the investment of money, time and other resources through the ages. Many of them are still business-critical and there is a high risk in replacing them. Therefore, reverse engineering is one of the major challenges for software engineering today. The most known definition of reverse engineering was given by Chikofsky and Cross (1990): “the process of analyzing a subject system to (i) identify the system’s components and their interrelationships and (ii) create representations of the system in another form or at a higher-level of abstraction”. Reverse engineering is the process of discovering and understanding software artifacts or systems with the objective of extracting information and providing high-level views of them that can be later on manipulated or re-implemented. That is to say, it is the processes of examination, not a process of change such as forward engineering and reengineering. Forward engineering is the traditional process of moving from high-level abstractions and implementation-independent designs to the physical implementation of a system. On the other hand, software reengineering includes a reverse engineering phase in which abstractions of the software artifacts to be reengineered are built, and a forward engineering phase that moves from abstractions to implementations (Sommerville, 2004) (Canfora &Di Penta, 2007). Reverse Engineering is also related with software evolution and maintenance. Software evolution is the process of initial development of a software artifact, followed by its maintenance. The ANSI/IEEE standard 729-1983 (Ansi/IEEE, 1984) defines software maintenance “as the modification of a software product after delivery to correct faults, to improve performance or other attributes, or to adapt the product to a changed environment”. Reverse engineering techniques can be used as a mean to design software systems by evolving existing ones based on new requirements or technologies. It can start from any level of abstraction or at any stage of the life cycle. Reverse engineering is hardly associated with modernization of legacy systems that include changes not only in software but in hardware, business processes and organizational strategies and politics. Changes are motivated for multiple reasons, for instance the constantly changing IT technology and the constantly changing business world. 3
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Contents Preface IX Part 1 Software
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Preface Introduction In the recent
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Preface XI and con’s related to t
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Preface XIII the step-by-step appli
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Part 1 Software Reverse Engineering
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108 Table 1. Number of smoothers an
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1. Introduction 60 Surface Reconstr
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Surface Reconstruction from Unorgan
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1. Introduction A Systematic Approa
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A Systematic Approach for Geometric
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A Review on Shape Engineering and D
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Integrating Reverse Engineering and
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Part 3 Reverse Engineering in Medic
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238 5. Summary and discussions Reve
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268 Fig. 6. A closed polygon mesh r
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272 3. Results Reverse Engineering
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