Temperature Measurement by Visible Pyrometry: Orthogonal Cutting Application-Reference-Cited by-同舟云学术

Temperature Measurement by Visible Pyrometry: Orthogonal Cutting Application

Published:2004-12-01 Issue:6 Volume:126 Page:931-936
ISSN:0022-1481
Container-title:Journal of Heat Transfer
language:en
Short-container-title:

Author:

Ranc N.¹,Pina V.¹,Sutter G.²,Philippon S.²

Affiliation:

1. L.E.E.E., E.A.387, Universite´ de Paris X Nanterre, 1, Chemin Desvallie`res, 92410 Ville d’Avray, France Tel.: +33-1-47-09-70-13; Fax: +33-1-47-09-16-45

2. L.P.M.M., U.M.R. C.N.R.S. n°7554, I.S.G.M.P., Universite´ de Metz, Ile du Saulcy, 57045 Metz, France

Abstract

The working processes of metallic materials at high strain rate like forging, stamping and machining often induce high temperatures that are difficult to quantify precisely. In this work we, developed a high-speed broad band visible pyrometer using an intensified CCD camera (spectral range: 0.4 μm–0.9 μm). The advantage of the visible pyrometry technique is to limit the temperature error due to the uncertainties on the emissivity value and to have a good spatial resolution (3.6 μm) and a large observation area. This pyrometer was validated in the case of high speed machining and more precisely in the orthogonal cutting of a low carbon steel XC18. The cutting speed varies between 22 ms−1 and 60 ms−1. The experimental device allows one to visualize the evolution of the temperature field in the chip according to the cutting speed. The maximum temperature in the chip can reach 730°C and minimal temperature which can be detected is around 550°C.

Publisher

ASME International

Subject

Mechanical Engineering,Mechanics of Materials,Condensed Matter Physics,General Materials Science

Link

http://asmedigitalcollection.asme.org/heattransfer/article-pdf/126/6/931/5660282/931_1.pdf

Reference29 articles.

1. Milton, C., and Shaw, M. C., 1984, Metal Cutting Principles, Clarendon Press, Oxford Science Publication, UK.

2. Loewen, E. G., and Shaw, M. C., 2000, “On the Analysis of Cutting Tool Temperature,” Trans. Am. Soc. Mech. Engrs., 71, pp. 217–231.

3. Hastings, W. F., Mathews, P., and Oxley, P. L. B., 1980, “A Machining Theory for Predicting Chip Geometry, Cutting Forces Etc. From Material Properties and Cutting Conditions,” Proc. R. Soc. London, Ser. A, 371, pp. 569–587.

4. Doyle, E. D., Homme, J. G., and Tabor, D., 1979, “Frictional Interaction Between Chip and Rake Face in Continuous Chip Formation,” Proc. R. Soc. London, Ser. A, 3666, pp. 176–183.

5. Grzesik, W. , 2003, “Friction Behavior of Heat Isolating Coating in Machining: Mechanical, Thermal and Energy-Based Considerations,” Int. J. Mach. Tools Manuf., 43, pp. 145–150.

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