CSPAID: Cutting Tool “Shape-Performance-Application” Integrating Design Approach

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Abstract:

Today’s cutting tool, characterized by specialization trend, require flexibility, adaptive and integrating of the cutting tool design. Targeting those goals, this paper presents a new approach, cutting tool “shape-performance-application” integrating design (CTSPAID), which considers the tool shape, performance and applications together, and builds the relationships between them, and achieve the combines between cutting tools and their applications. Also, the system architecture with three layers and two steps is put forward and IDEF0 are selected as the modelling method, as well as some rulers for this system.

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Materials Science Forum (Volumes 800-801)

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470-474

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July 2014

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© 2014 Trans Tech Publications Ltd. All Rights Reserved

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[1] X. Yan, H.M. Shi and A.M. Tang, New method for establishing the theory of metal cutting tool geometry design, J. Cemented Carbide. 17(02) (2000) 101~103.

Google Scholar

[2] H.M. Shi, Metal Cutting Theory and Practice - a New Perspective, Huazhong University of Science & Technology Press, Wuhan, (2002).

Google Scholar

[3] J.H. Liu, Theory and practice of Cutting Tool Precision Design, National Defence Industry Press, Beijing, (2005).

Google Scholar

[4] H. Jiang, Application of cutting tool design by using Rota function, J. Tool Engineering. 24(10) (1990) 22~24.

Google Scholar

[5] R.Y. Cheng, Principles of metal cutting, China Machine Press, Beijing, (2002).

Google Scholar

[6] J. Bailey, R. Roy, et al, Cutting Tool Design Knowledge Capture, Springer, London, (2001).

Google Scholar

[7] V. P. Astakhov, Fundamentals of the Selection of Cutting Tool Geometry Parameters, Springer, London, (2010).

Google Scholar

[8] F. Klovke, A. Kuchle, Cutting Tool Materials and Tools, Springer, Berlin Heidelberg, (2011).

Google Scholar

[9] C. Siemers, et al. Chip formation and machinability of nickel-base superalloys, C. Euro Superalloys 2010, P.O. Box 1254, Clausthal -Zellerfeld, D-38670, Germany, Trans Tech Publications, c2011: 460-465.

DOI: 10.4028/www.scientific.net/amr.278.460

Google Scholar

[10] Y.H. Lu, Y.P. Zhu, Expert system in the design of complex shaped tools, J. Tool Engineering. (1988) 1~4.

Google Scholar

[11] R.Z. Zhou, Application of cutting tool design by using NC automatic programming language, J. Tool Engineering. 06 (1984) 6~10.

Google Scholar

[12] Y. Mizugaki, M. Hao, et al. Optimal tool selection based on genetic algorithm in a geometric cutting simulation, J. CIRP Annals - Manufacturing Technology. 43(1) (1994) 433-436.

DOI: 10.1016/s0007-8506(07)62247-1

Google Scholar

[13] X.J. Hu, D.F. Chen, Application of Cutting tool design by computer simulation technology, J. Computer and Communications, 14(3) (1999) 55~57.

Google Scholar

[14] B. Li, H. Zhang, et al. Numerical simulation technology on tool wear of metal cutting, C. International Conference on Advanced Technology of Design and Manufacture, ATDM 2010, November 23, 2010 - November 25, 2010, Beijing, China, Institution of Engineering and Technology, c2010: 225-231.

DOI: 10.1049/cp.2010.1294

Google Scholar

[15] Y.J. Wang, C. Wu, X.T. Zhang, Research of auto-modeling of cutting tool machining turbine blade based on UG, J. Mechanical Engineer. 5 (2010) 103~105.

Google Scholar