Page 148 - Modular design for machine tools
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108 Modular Design Guide and Machine Tools Description
together with heavy cutting by preferably leveraging the related dimen-
sional and performance specifications. Obviously, these specifications
cannot be fulfilled simultaneously at present in the design of the
machine tool, which is one of the leading causes for the ill-defined prob-
lem in the machine tool design.
To this end, it is again envisaged that the complexity in the applied
loads due to multifarious machining methods is one of the leading struc-
tural design factors in the machining complex; however, the utmost
serious problem is how to equalize the temperature distribution and
minimize the thermal deformation. Another difficulty lies in the prepa-
ration of the NC software, because of the complexity of the part shape
and one-chucking machining including a hands-off procedure. In other
words, at issue is the leverage between the production volume and the
production cost of the NC software.
References
1. Doi, Y., “On Application of BBS,” Toyoda Technical Report, 1963, 4(3): 22–32.
2. Feldmann, K., “Analyse der Gestaltung von automatischen Drehmaschinen,”
Industrie-Anzeiger, 1975, 97(67):1467–1468.
3. Ito, Y., and Y. Yoshida, “Design Conception of Hierarchical Modular Construction—
Manufacturing Different Kinds of Machine Tools by Using Common Modules.” In S. A.
Tobias and F. Koenigsberger (eds.), Proc. of 19th Int. Machine Tool Design and Res.
Conf., Macmillan, 1979, pp. 147–153.
4. Metternich, J., and B. Würsching, “Plattformkonzepte im Werkzeugmaschinenbau,”
Werkstatt und Betrieb, 2000, 133(6): 22–29.
5. Koenigsberger, F., “Modular Design of Machine Tools,” private draft proposal, July 29,
1975, The University of Manchester Institute of Science and Technology, United Kingdom.
6. Tönshoff, H. K., M. Mey, and A. Schnülle, “An Approach for the Concurrent
Development and Manufacturing of Modular Machine Tools,” Production Engineering,
1998, 5(1): 63–66.
7. Shinno, H., and Y. Ito,“Computer Aided Concept Design for Structural Configuration
of Machine Tools—Variant Design Using Directed Graph,” Trans. ASME J.
Mechanisms, Transmissions and Automation in Design, 1987, 109: 372–376.
8. Tönshoff, H. K., and F. Böger, “Kundenspezifishe Konfigurierung modularer
Werkzeugmaschinen,” ZwF, 1996, 91(9): 433–436.
9. Höft, K., and Y. Ito, “A Method for Culture- and Mindset-Harmonised Design,” in
Poster Session of ICED ‘99 (International Conference on Engineering Design),
München, August 24–26, 1999.
10. Höft, K., “Culture- and Mindset-Harmonised Manufacturing in Sustainable Global
Environments,” Dissertation, Tokyo Institute of Technology, March 1999.
11. Dietz, P., “Baukastensystematik und methodisches Konstruieren in Werkzeugmaschinenbau,”
Werkstatt und Betrieb, 1983, 116(4): 185–189.
12. Lee, H. S., H. Shinno, and Y. Ito,“Structural Configuration Design of Machining
Center—On the Variant Method Using Conjunction Pattern,” J. JSPE, 1986, 52(8):
1393–1398.
13. Dietz, P., “Pendelbearbeitung und Baukasten-Maschinensysteme steigern die
Produktivität,” Industrie-Anzeiger, 1983, 105(17): 42–47.
14. Neumann, P., “Entwicklung von Qualitätskriterien für die Weiter- oder Wiederverwendung
angepasster Produkte und Komponenten,” Matr- Nr. 146123, Technische Universität
Berlin, Dec. 21, 2001.
15. Jones, D. T., “The Route to the Future,” Manufacturing Engineer (IEE), 2001, 80(1):
33–37.