Abstract
Much research work has been devoted to developing techniques for improving the capabilities of computer aided design (CAD) systems for limited engineering and architectural purposes, where the domain of objects to be designed is somewhat restrictive and constrained in scope. Other types of design such as sculpting or industrial design, where aesthetic factors play a more important role, have not been adequately catered for. The main reason for this neglect is that aesthetic factors have fuzzy characteristics, are subjective and difficult to specify. This paper identifies the needs for fuzzy logic in the development of CAD systems, and in particular, discusses how fuzzy logic can be used to model aesthetic factors. We categorise aesthetic intents, analyse the requirements for their representations and present a systematic scheme to realise aesthetic intents using fuzzy logic. Finally, we show how this scheme can be applied to enrich the process of producing artistic work such as brush painting.
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References
Barr A.H., Superquadrics and angle-preserving transformations, IEEE Comput, Graph. Appl. 1, 1981, 11–22.
Barr A.H., Global and local deformation of solid primitives, Comput. Graph. 18(3), 1984, 21–30.
Blackmore D., Leu M.C., Shih F., Analysis and modelling of deformed swept volumes, Computer Aided Design 26(4), 1994, 315–325.
Coyne R.D., Rosenman M.A., Radford A.D., Gero J.S.,Innovation and creativity in knowledge-based CAD, in Expert Systems in Computer-Aided-Design Gero J.S. (Ed. J.S. Gero), 1987, 435–470, Elsevier Science Publishers (North-Holland).
De Martino T., Falcidieno B., Feature-based modelling by integrating design and recognition approaches, Computer-Aided Design 26(8), 1994, 646–653.
Dutta D., Martin R.R., Pratt M.JCyclides in surface and solid modelling, IEEE Comput. Graph. Appl. 13(1), 1993, 53–59.
Ferguson H.& C., Mathematics in stone and bronze, Meridan Creative Group, 1994.
Gero J.S.(Ed.), Artificial Intelligence in Design Kluwer Academic, 1992.
Ghosh P.K., Mudur S.P., The brush-trajectory approach to figure specification: some algebraic solutions, ACM Trans. Graph. 3, 1984, 110–134.
Hanson A.J., Hyperquadrics: Smoothly deformable shapes with convex polyhedral bounds, Comput. Vis. Graph. Img. Proces. 44, 1988, 191–210.
Kurangano T., Fresdam system for design of aesthetically pleasing free-form objects and generation of collision-free tools path, Computer-Aided Design 24(11), 1992, 573–581.
Lazarus F., Axial deformations: an intuitive deformation technique, Computer Aided Design 26(8), 1994, 607–613.
Laako T., Mantyla M., Feature modelling by incremental featurerecognition, Computer Aided Design 25(8), 1993, 479–492.
McNeill D., Freioberger P., Fuzzy Logic, Simon & Scuster, NY, 1993.
Negotia C.V., Ralescu D., Simulation Knowledge-based Computing and Fuzzy Statistics, Van Nostrand Reinhold, NY, 1987.
Pang Y.J., Yang S.X., Chi Y., Combining computer graphics with Chinese traditional painting, Comput. Graph. 11, 1987, 63–68.
Pham B., Offset approximation of uniform B-splines, Computer Aided Design 20 (8), 1988, 471–474.
Pham B., Expressive Brush Strokes, CVGIP Graphical Models & Image Processing 53 (1) 1991, 1–6.
Pham B., From CAD to automation of the design process, Annals of Numerical Mathematics 3 , No. 1–4 (1996) , Computer Aided Geometric Design (Eds. C.A. Micchelli, H.B. Said).
Pham B., CAD and Creativity, invited talk, Fourth SIAM Conference on Geometric Design 1995, Nashville, Tennessee.
Sittas E., 3D design reference framework, Computer Aided Design 25(5), 1993,380–384.
Smither T., AI-based design versus geometry-based design, Computer Aided Design 21(3), 1989, 141–150.
Strassman S., Hairy brushes, Proc. SIGGRAPH 22, 1986, 225–232.
Takala T., Woodward C.D., Industrial design based on geometric intentions, in Theoretical Foundation of Computer Graphics and CAD (Ed. B.A. Earnshaw), NATO ASI Series. Vol F40, 1988, 953–963.
Terzopoulos D., Metaxas D., Dynamic 3D models with local and global deformations: deformable superquadrics, IEEE Trans. Patt. Anal. Mach. Intell. 13(7), 1991, 703–714.
Tong C., Sriram D, Artificial Intelligence in Engineering Design, Acad. Press 1992
Tomiyama T., Ten Hagen P.J.W., Organization of design knowledge in an intelligent CAD environment, in Expert Systems in Computer-Aided-Design Gero J.S. (Ed. J.S. Gero), 1987, 119–147, Elsevier Science Publishers (North-Holland).
Tyugu E.H., Merging conceptual and expert knowledge in CAD, in Expert Systems in Computer-Aided-Design Gero J.S. (Ed. J.S. Gero), 1987, 423–434, Elsevier Science Publishers (North-Holland).
Wallace D.R., Jakiela M.J., Automated product concept design: unifying aesthetic and engineering, IEEE Comput. Graph. Appl. 13, 1993, 66–75.
Zadeh L., Fuzzy Sets, Information and Control 8(3), 1965, 338–353.
Zucker J., Demaid A., Object-oriented representation of qualitative engineering properties, Computer Aided Design 26(10) 1994, 722–734.
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© 1998 Springer-Verlag Berlin Heidelberg
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Pham, B. (1998). Fuzzy Logic Applications in Computer Aided Design. In: Reznik, L., Dimitrov, V., Kacprzyk, J. (eds) Fuzzy Systems Design. Studies in Fuzziness and Soft Computing, vol 17. Physica, Heidelberg. https://doi.org/10.1007/978-3-7908-1885-7_5
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DOI: https://doi.org/10.1007/978-3-7908-1885-7_5
Publisher Name: Physica, Heidelberg
Print ISBN: 978-3-662-11811-5
Online ISBN: 978-3-7908-1885-7
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