The 19th International Conference on Industrial Engineering and Engineering Management pp 1215-1223 | Cite as
Realization of 3D Reconstruction of CAD Model Based on Slicing Data
Abstract
This paper points out that the reverse engineering is the important technology to realize product innovation based on the prototype. It puts forward a new method to realize 3D reconstruction that takes slicing data of prototype as original data, under the commercial CAD modeling software environment, and briefly introduces the system developed by authors. The working process of this system is to read in the slicing data of the prototype, after pretreatment and feature recognition, to output feature data and realize 3D reconstruction under the SolidWorks environment, at last to construct the CAD solid model. It lays a good foundation for modifying the model so as to realize the product innovation. The innovation of this system lies in: according to slicing data, it can directly construct the CAD solid model. This paper also analyzes the key problems of the reconstruction process, and indicates that this technology has obvious advantages for mechanical manufacture filed.
Keywords
3D reconstruction CAD model Feature recognition Reverse engineeringReferences
- Abella RJ, Daschbach JM, Mcnichols RJ (1994) Reverse engineering industrial application. Comput Ind Eng 26(2):381–385Google Scholar
- Chen L-C, Lin GCI (1997) An integrated reverse engineering approach to reconstructing free-form surfaces. Comput Integr Manuf Syst 10(1):49–60Google Scholar
- Chow J, Xu T, Lee S-M, Kengskool K (2002) Development of an integrated laser-based reverse engineering and machining system. Int J Adv Manuf Technol 19:186–191Google Scholar
- Daschbach J, Abella R, McNichols R (1995) Reverse engineering: a tool for process planning. Comput Ind Eng 29:(1–4):637–640Google Scholar
- Honsni Y, Ferreira L (1994) Laser based system for reverse engineering. Comput Ind Eng 26(2):387–394Google Scholar
- Huang X, Du X, Xiong Y (2001) Modelling technique in reverse engineering. China Mech Eng 12(5):539–542 (in Chinese)Google Scholar
- Li D, Wang M, Liu Y (2003) Research on interacted-modeling method for reverse engineering. China Mech Eng 14(19):1677–1680 (in Chinese)Google Scholar
- Liu Y (2004) Research on CAD modeling key technology of reverse engineering based slicing feature. Zhejiang University, Hangzhou (in Chinese)Google Scholar
- Liu Z, Huang C (1992) Reverse engineering design. China Machine Press, Beijing, p 116 (in Chinese) Google Scholar
- Liu Y, Hang J, Wan Y (1998) Reverse engineering and modern design. J Mach Des 16(12):1–4 (in Chinese) Google Scholar
- Luan Y, Li H, Tang B (2003) Reverse engineering and its technologies. J Shan Dong Univ (Eng Sci) 33(2):114–118 (in Chinese)Google Scholar
- Motavalli S, Bidanda B (1994) Modular software development for digitizing systems data analysis in reverse engineering application: case of concentric rotational parts. Comput Ind Eng 26(2):395–410Google Scholar
- Puntambekar NV, Jablokow AG, Joseph Sommer III H (1994) Unified review of 3D modal generation for reverse engineering. Comput Integr Manuf Syst 7(4):259–268Google Scholar
- Schreve K, Goussard CL, Basson AH, Dimitrov D (2006) Interactive feature modeling for reverse engineering. J Comput Inf Sci Eng 6:422–424Google Scholar
- Wen X (2004) Reverse engineering technique of complex surface product based prototype. Mech Electr Inf 4(8):35–37 (in Chinese)Google Scholar