Thermovision measurements of the tool-chip upper side temperature in turning AISI 321 steel
Marian Bartoszuk
Opole University of TechnologyAbstrakt
The article presents the methodology of conducting research on temperature distribution in the cutting zone for orthogonal turning without the use of a cooling liquid. AISI 321 austenitic steel was chosen as the workpiece material to be tested, while TNMA160408 carbide inserts, with a flat rake face made of H10F carbide, were chosen as the cutting edges. The research used infrared imaging, which still poses many research problems. The author's own method of calibration of the measurement chain is also presented. In addition, the most common causes of inaccuracies in thermovision measurements of cutting temperatures are discussed. The obtained temperature distribution maps were related to the average contact temperature determined by the method of natural thermocouple – chips/rake face.
Słowa kluczowe:
cutting zone, temperature on the chip upper side, contact temperature, thermovision, infrared imagingBibliografia
ABHANG L.B., HAMEEDULLAH M. 2010. Chip-Tool Interface Temperature Prediction Model for Turning Process. International Journal of Engineering Science and Technology, 2(4): 382-393. Google Scholar
AKHIL C.S., ANANTHAVISHNU M.H., AKHIL C.K., AFEEZ P.M., AKHILESH R., RAHUL R. 2016. Measurement of Cutting Temperature during Machining. IOSR Journal of Mechanical and Civil Engineering, 13(2-I): 108-122. Google Scholar
ANEIRO F.M., COEHO R.T., BRANDAO L.C. 2008. Turning Hardened Steel Using Coated Carbide at High Cutting Speeds. Journal of the Brazilian Society of Mechanical Sciences and Engineering, XXX(2): 104-109. Google Scholar
ARRAZOLA P.J., ARRIOLA I., DAVIES M.A., COOKE A.L., DUTTERER B.S. 2008. The effect of machinability on thermal fields in or-thogonal cutting of AISI 4140 steel. CIRP Annals – Manufacturing Technology, 57: 65-68. Google Scholar
BASTI A., OBIKAWA T., SHINOZUKA J. 2007. Tools with built-in thin film thermocouple sensors for monitoring cutting temperature. International Journal of Machine Tools & Manufacture, 47: 793-798. Google Scholar
CEAU G., POPOVICI V., CROITORU S. 2010. Researches About The Temperature of The Cutting Edge in Turning of Unalloyed Steel. U.P.B. Sci. Bull., Series D, 72(3): 97-110. GRZESIK W. 2016. Advanced Machining Processes of Metallic Materials. Theory, Modeling and Applications. Elsevier Science. Google Scholar
HEIGEL J.C., WHITENTON E., LANE B., DONMEZ M.A., MADHAVAN V., MOSCOSO-KINGSLEY W. 2017. Infrared measurement of the temperature at the tool–chip interface while machining Ti–6Al–4V. Journal of Materials Processing Technology, 243: 123-130. Google Scholar
JASPERS S.P.F.C., DAUTZENBERG J.H., TAMINIAU D.A. 1998. Temperature Measurement in Orthogonal Metal Cutting. The International Journal of Advanced Manufacturing Technology, 14: 7-12. Google Scholar
M’SAOUBI R., CHANDRASEKARAN H. 2004. Investigation of the effects of tool micro-geometry and coating on tool temperature during orthogonal turning of quenched and tempered steel. International Journal of Machine Tools & Manufacture, 44: 213-224. Google Scholar
Narzędzia tokarskie. 2017. Katalog firmy Sandvik Coromant. Google Scholar
RECH J. 2006. Influence of cutting tool coatings on the tribological phe-nomena at the tool-chip interface in orthogonal dry turning. Surface & Coatings Technology, 200: 5132-5139. Google Scholar
STEPHENSON D.A., AGAPIOU J.S. 2016. Metal Cutting Theory and Practice. Third Edition, CRC Press. Google Scholar
WANG L., SAITO K., JAWAHIR S.I. 1996. Infrared temperature meausrement of curled chip formation in metal machining. Transaction of NAMRI/SME, XXIV: 87-92. Google Scholar
YVONNET J., UMBRELLO D., CHINESTA F., MICARI F. 2006. A simple inverse procedure to determine heat flux on the tool in orthogonal cutting. International Journal of Machine Tools & Manufacture, 46: 820-827. Google Scholar
ZHAO J., LIU Z., WANG B., HUA Y., WANG Q. 2018. Cutting temperature measurement using an improved two-color infrared thermometer in turning Inconel 718 with whisker-reinforced ceramic tools. Ceramics International, 44(15): 19002-19007. Google Scholar
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