A systematic approach to enhance machine tool accuracy for precision manufacturing

International Journal of Machine Tools and Manufacture

Volumn 37, Issue 5, 1997, Pages 669-685

  Mou, J ^a  

^a ARIZONA STATE UNIVERSITY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

ADAPTIVE SYSTEMS; DATA REDUCTION; ERROR COMPENSATION; ERROR CORRECTION; ERRORS; ITERATIVE METHODS; MANUFACTURE; MATHEMATICAL MODELS; TECHNOLOGY;

ACCURACY; ERROR MODEL; MULTIAXIS MACHINES; PRECISION MANUFACTURING;

MACHINE TOOLS;

EID: 0031141162     PISSN: 08906955     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0890-6955(95)00106-9     Document Type: Article

References (56)

1. R. J. Hocken, Technology of Machine Tools, Vol. 5: Machine Tool Accuracy, Lawrence Livermore Laboratory, University of California, Livermore, CA (1980).
2. QIA Progress Report, Progress report of the quality in automation project for FY90, edited by M. A. Donmez, NISTIR 4536, National Institute of Standards and Technology, MD (1990).
3. A. H. Slocum, Precision Machine Design, Prentice Hall, Englewood Cliffs, NJ (1992).
4. A. Balsamo, D. Marques and S. Sartori, A method for thermal deformation corrections of CMMs, CIRP 39(1), 557 (1990).
5. K. Busch, H. Kunzmann and F. Waldele, Calibration of coordinate measuring machines, Precision Engng 7, 139 (1985).
6. C. Butler, An investigation into the performance of probes on coordinate measuring machines, Ind. Metrol. 2, 59 (1991).
7. N. Duffie, S. Feng and J. Kann, CAD-directed inspection, error analysis, and manufacturing process compensation using tricubic solid database, CIRP 37(1), 149 (1988).
8. A.K. Elshennawy and I. Ham, Performance improvement in coordinate measuring machines by error compensation, J. Manufact. Syst. 9(2), 151 (1990).
9. R.J. Hocken, J.A. Simpson, B. Borchardt, J. Lazar, C. Reeve and P. Stein, Three dimensional metrology, CIRP 26(1), 403 (1977).
10. R.J. Hocken and H. Layer, Laser for dimensional metrology, CIRP 28(1), 303 (1979).
11. R. J. Hocken, A new standard for the performance of coordinate measuring machines. Proc 1991 NSF Design and Manufacturing Systems Conf., p. 823 (1991).
12. K.H. Kim, K.F. Eman and S.M. Wu, Analysis of alignment errors in a laser-based in-process cylindrical grinding, ASME Trans. J. Engng Ind. 109(4), 321 (1987).
13. W. Knapp, Circular test for three-coordinate measuring machines and machine tools, Precision Engng 5(3), 115 (1983).
14. H. Kunzmann and F. Waldele, On testing coordinate measuring machines (CMM) with kinematic reference standards (KRS), CIRP 32(1), 465 (1983).
15. H. Kunzmann, E. Trapet and F. Waldele, A uniform concept for calibration, acceptance test, and periodic inspection of coordinate measuring machines using reference objects, CIRP 39(1), 561 (1990).
16. C. -H. Menq, H. -T. Yau, G. -Y. Lai and R. A. Miller, Statistical evaluation of form tolerances using discrete measurement data, Proc. of ASME Winter Annual Meet., p. 135 (1990).
17. J. Mou and M. A. Donmez, Integrated inspection system for improved machine performance, SPIE Conf. Proc. of Sensors and Controls for Automated Manufacturing Systems, SPIE-Vol. 2063, p. 22 (1993).
18. T. Nishiguchi, Y. Koizumi, Y. Maeda, M. Masuda and K. Nagayama, Improvement of productivity in aspherical precision machining with in-situ metrology, CIRP 40(1), 367 (1991).
19. J.W.M.C. Teeuwsen, J.A. Soons and P.H.J. Schellekens, A general method for error description of CMMs using polynomial fitting procedures, CIRP 38(1), 505 (1989).
20. G. Zhang, R. Veale, T. Charlton, B. Borchardt and R. Hocken, Error compensation of coordinate measuring machines, CIRP 34(1), 445 (1985).
21. J.B. Bryan, A simple method for testing measuring machines and machine tools, part 1: principles and applications, Precision Engng 4(2), 61 (1982).
22. J.S. Chen, J.S. Yuan, J. Ni and S.M. Wu, Thermal error modeling for volumetric error compensation, Sensors Signal Process. Manufact. 55, 113 (1992).
23. J.S. Chen, J.S. Yuan, J. Ni and S.M. Wu, Real-time compensation for time-variant volumetric errors on a machine center, ASME Trans. J. Engng Ind. 115, 472 (1993).
24. M.A. Donmez, C.R. Liti, M.M. Barash and F. Mirski, Statistical analysis of positioning error of a CNC milling machine, J. Manufact. Syst. 1(1), 33 (1982).
25. M.A. Donmez, D.S. Blomquist, R.J. Hocken, C.R. Liu and M.M. Barash, A general methodology for machine tool accuracy enhancement by error compensation, Precision Engng 8(4), 187 (1986).
26. M. A. Donmez, C. R. Liu and M. M. Barash, A generalized mathematical model for machine tool errors, Modeling, Sensing, and Control of Manufacturing Processes, ASME Winter Ann. Conf., PED-Vol. 23/DSC-Vol. 4, p. 231 (1987).
27. N.A. Duffie and S.J. Malmberg, Error diagnosis and compensation using kinematic model and position error data, CIRP 36(1), 355 (1987).
28. K.F. Eman, B.T. Wu and M.F. DeVries, A generalized geometric error model of multi-axis machines, CIRP 36(1), 253 (1987).
29. P.M. Ferreira and C.R. Liti, An analytical quadratic model for the geometric error of a machine tool, J. Manufact. Syst. 5(1), 51 (1986).
30. P.M. Ferreira and C.R. Liti, A method for estimating and compensating quasistatic errors of machine tools, ASME Trans. J. Engng Ind. 115, 149 (1993).
31. D. E. Gilsinn, H. T. Bandy, M. A. Donmez, L. Greenspan, K. Harper and N. Wilkin, Application of a generic machine tool error model to a turning center, NISTIR (1994).
32. J. Jedrzejewski, J. Kaczinarek, Z. Kowal and Z. Winiarski, Numerical optimization of thermal behaviour of machine tools, CIRP 39(1), 379 (1990).
33. J. Jedrzejewski and W. Modrzycki, A new approach 10 modelling thermal behaviour of machine tools under service conditions, CIRP 41(1), 455 (1992).
34. K.H. Kim, K.F. Eman and S.M. Wu, Feasibility of form accuracy identification and control in cylindricity grinding, Int. J. Mach. Tool Des. Res. 26, 259 (1986).
35. K.H. Kim, K.F. Eman and S.M. Wu, In-process control of cylindricity in boring operations, ASME Trans J. Engng Ind. 109(4), 291 (1987).
36. K.H. Kim, K.F. Eman and S.M. Wu, Development of a forecasting compensatory control system for cylindrical grinding, ASME Trans. J. Engng Ind. 109(4), 385 (1987).
37. A. Kurtoglu, The accuracy improvement of machine tools, CIRP 39(1), 417 (1990).
38. M. Matsuo, T. Yasui, T. Inamura and M. Matsumura, High speed test of thermal effects for a machine-tool structure based on model analysis, Precision Engng 8(2), 72 (1986).
39. J. Mou and C.R. Liu, A method for enhancing the accuracy of CNC machine tools for on-machine inspection, J. Manufact. Syst. 11(4), 229 (1992).
40. J. Mou, Computer-aided error modeling approach to improve the accuracy of turning processes, Comput. Ind. 24, 71 (1994).
41. J. Mou, Using neural network and kinematics for machine tool error monitoring and compensation, Trans. North Am. Manufact. Res. Inst. SME 22, 241 (1994).
42. J. Mou and C.R. Liu, A methodology for machine tool error correction based on reference parts, Int. J. Comput. Integrat. Manufact. 8(1), 64 (1995).
43. J. Mou and C.R. Liu, An adaptive methodology for machine tool errors correction, ASME Trans. J. Engng Ind. 117(3), 389 (1995).
44. J. Mou, M. A. Donmez and S. Cetinkunt, Integrated error correction system for machine performance improvement, Proc. 1994 American Control Conf., Vol. 3, p. 2914 (1994).
45. J. Mou, M.A. Donmez and S. Cetinkunt, An adaptive methodology using features-based analysis techniques for machine performance improvement: part H - experimental verification, ASME Trans. J. Engng Ind. 117(4), 591 (1995).
46. J. Mou and C.R. Liu, An innovative approach to increase the accuracy of multi-axis machines for process-intermittent inspection, ASME Trans. J. Engng Ind. 118(4), 585 (1996).
47. J.A. Soons, F.C. Theuws and P.H. Schellekens, Modeling the errors of multi-axis machines: a general methodology, Precision Engng 14(1), 519 (1992).
48. Y. Takeuchi, M. Sakamoto and Y. Sata, Improvement in the working accuracy of an NC lathe by compensating for thermal expansion. Precision Engng 4(1), 19 (1982).
49. J. Tlusty, Testing of accuracy of machine tools - supplement to the Machine Tools Task Force reports, Vol. 5: Machine Tool Accuracy. UCRL-52960-5, Lawrence Livermore Laboratory, University of California, Livermore, CA (1980).
50. K. W. Yee and R. J. Gavin, Implementing fast part probing and error compensation on machine tools. NISTIR 4447, National Institute of Standards and Technology, MD (1990).
51. S. C. Feng and T. H. Hopp, A review of current geometric tolerancing theories and inspection data analysis algorithms, NISTIR 4509, National Institute of Standards and Technology, MD (1991).
52. J. Mou, M.A. Donmez and S. Cetinkunt, An adaptive methodology using features-based analysis techniques for machine performance improvement: part 1 theory derivation, ASME Trans. J. Engng Ind. 117(4), 0 (1995).
53. DMIS, DMIS 2.1, Specification CAM-I Standard 101. CAM-I, Inc., Arlington, TX (1990).
54. J. Mou and M. A. Donmez, An adaptive error correction method for CNC machine tools. Proc. 3rd Int. Conf. Ultra-Precision in Manufacturing Engineering, p. 113 (1994).
55. K. W. Yee, Alternative designs of a real-time error corrector for machine-tools with encoder position feedback. NISTIR 4832, National Institute of Standards and Technology, MD (1992).
56. J.S. Chen, J.S. Yuan, J. Ni and S.M. Wu, Compensation of non-rigid body kinematic effect on a machining center, Trans. North Am. Manufact. Res. Inst. SME 20, 325 (1992).