Metal cutting is a thermomechanically coupled process in which plasticity induced heating and friction play a critical role. The objective of this work is to develop a methodology to understand and quantify this coupling. Temperatures of the workpiece and the chip during transient cutting processes are measured using a linear array of 16 InSb infrared detectors with 200 ns rise time and 27 μm spatial resolution. Three different materials, 1018 CR steel, Al6061-T6 and Ti-6Al-4V, are tested at a cutting speed of 4.3 m s−1. A grid method is used to measure deformations during the above set of experiments. Measured values of temperature and deformation are compared to results of finite element simulations of the experiments.
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Usui, E. and Shirakashi, T., “Mechanics of Metal Machining — From ‘Descriptive’ to ‘Predictive’ Theory,” On the Art of Cutting Metals: A Tribute to F.W. Taylor,PED 7,The Winter Annual Meeting of the American Society of Mechanical Engineers, L. Kops and S. Ramalingam, editors (1982).
Strenkowski, J.S. andMoon, K.-J., “Finite Element Prediction of Chip Geometry and Tool/Workpiece Temperature Distributions in Orthogonal Metal Cutting,”Journal of Engineering for Industry,112,313–318 (1990).
Lin, Z.C. andLin, S.Y., “A Coupled Finite Element Model of Thermo-Elastic Large Deformation for Orthogonal Cutting,”Journal of Engineering Materials and Technology,114,218–226 (1992).
Marusich, T.D. andOrtiz, M., “Modeling and Simulation of High Speed Machining,”International Journal of Numerical Methods In Engineering,38,3675–3694 (1995)
Shet, C. andDeng X., “Finite Element Analysis of the Orthogonal Metal Cutting Process,”Journal of Materials Processing Technology,105,95–110 (2000).
Lei, S., Shin, Y.C. andIncropera, F.P., “Thermomechanical Modeling of Orthogonal Machining Process by Finite Element Analysis,”International Journal of Machine Tools and Manufacture, Design, Research and Application,39,731–770 (1999).
Potdar, Y.K. and Zehnder, A.T., “Measurements and Simulations of Temperature and Deformation Fields in Transient Metal Cutting,” Journal of Manufacturing Science and Engineering, in press (2003).
Potdar, Y.K. andZehnder, A.T. “Measurement and Simulation of Temperature and Strain Fields in Orthogonal Metal Cutting,”Metal Cutting and High Speed Machining, Dudzinski et al. editors Kluwer Academic, Dordrecht (2002).
boothroyd, G., “Photographic Technique for the Determination of Metal Cutting Temperature,”British Journal of Applied Physics,12,238–242 (1961).
Chao, B.T., Li, H.L. and Trigger K.J., “An Experimental Investigation of Temperature Distribution at Tool-Flank Surface,” Transactions of the ASME, 496–504 (1961).
Prins, O.D., “The Influence of Wear on the Temperature Distribution at the Rake Face,”Annals of the C.I.R.P.,XVIV,579–584 (1971).
Lezanski, P. andShaw, M.C., “Tool Frace Temepratures in High Speed Milling,”Transactions of the ASME,112,132–135 (1990).
Stephenson, D.A., “Assessment of Steady-State Metal Cutting Temperature Models Based on Simultaneous Infrared and Thermocouple Data,”Journal of Engineering for Industry,113,121–128 (1991).
Müller-Hummel, P., Lahres, M., Mehlhose, J. andLang, G., “Metasumement of Temperature in Diamond Films and Technology,7,219–239 (1997).
Vernaza-Peña, K., Mason, J.J. andLi, M., “High Speed Temperature Measurements in Orthogonal Cutting of Aluminum,”Experimental Mechanics,42,221–229 (2003).
Davies, M.A., Yoon, H., Schmitz, T.L. andKennedy, M.S., “Calibrated Thermal Microscopy of the Tool Chip Interface in Machining,”Journal of Machining Science and Technology,7 (2),167–190 (2003).
Potdar, Y.K. Measurements and Simulations of Temperature and Deformation Fields in Transient Orthogonal Metal Cutting, Ph.D. Thesis, Cornell University (2001).
Wang C.C., Lee, J., Chen, L.W. andLai, H.Y., “A New Method for Circular Grid Analysis in the Sheet Metal Forming Test,”Experimental Mechanics,40,190–196 (2000).
Bitans, K. andBrown, R.H., “An Investigation of the Deformation in Orthogonal Cutting,”International Journal Machine Tools Design and Research,5,155 (1965).
Zorev, N.N., Metal Cutting Mechanics, M.C. Shaw, editor, Pergamon Press, New York (1966).
Palmer, W.B. andOxley, P.L.B., “Mechanics of Orthogonal Machining,”Proceedings of Institute of Mechanical Engineers,173,623 (1959).
Komanduri R, andBrown, R.H., “On the Mechanics of Chip Segmentation in Machining,”Journal of Engineering for Industry,103,33–51 (1981).
Zehnder, A.T., andRosakis, A.J., “Temperature Rise at the Tip of Dynamically Propagating Cracks: Measurements Using High-Speed Infrared Detectors,”Experimental Techniques in Fracture, J.S. Epstein, editor, Society for Experimental Techanics, VCH Publishers, New York, 124–170 (1993).
Zehnder, A.T. andRosakis, A.J., “On the Temperature Distribution in the Vicinity of Dynamically Propagating Cracks in 4340 Steel,”Journal of the Mechanics and Physics of Solids,39,385–415 (1991).
Rolyn Optics Company, 706 Arrowgrand Circle, Covina, CA 91722, USA.
BEAM2, Stellar Software, CA, USA.
Hodowany, J., Ravichandran, G., Rosakis, A.J. andRosakis, P., “Partition of Plastic Work into Heat and Stored Energy in Metals,”Experimental Mechanics,40,113–123 (2000).
Kapoor, R. andNemat-Masser, S., “Determination of Temperature Rise During High Strain Rate Deformation,”Mechanics of Materials,27,1–12 (1998).
Zehnder, A.T., Guduru, P., Rosakis, A. andRavichandran, G., “Million Frames per Second Infrared Imaging System,”Review of Scientific Instruments,71,3762–3768 (2000).
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Potdar, Y.K., Zehnder, A.T. Temperature and deformation measurements in transient metal cutting. Experimental Mechanics 44, 1–9 (2004). https://doi.org/10.1007/BF02427969
- temperature measurement
- orthogonal metal cutting
- grid method
- deformation measurement