CHIP FORMATION DURING THERMAL FRICTION TURN-MILLING

Medgat Mussayev; Karibek Sherov; Aizhan Taskarina; Aybek Sherov; Riza Gabdyssalik; Toty Buzauova; Saule  Ainabekova

doi:10.5937/jaes0-27510

Medgat Mussayev Karaganda Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan
Karibek Sherov Karaganda Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan
Aizhan Taskarina Pavlodar University, Mechanical Engineering faculty, Department of Metallurgy, Pavlodar, Kazakhstan
Aybek Sherov LlP «Kazakhstan Aviation Industry», Nur-Sultan, Kazakhstan
Riza Gabdyssalik D.Serikbayev East Kazakhstan University, Mechanical Engineering faculty, Department of mechanical engineering, Ust-Kamenogorsk, Kazakhstan
Toty Buzauova Karaganda Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan
Saule Ainabekova Karaganda Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

DOI: https://doi.org/10.5937/jaes0-27510

Keywords: thermofrictional turn-milling, chip root, structural angle, slowed-down layer, plastic deformation

Abstract

This paper presents the results of chip formation studies in the processing of 30KhGSA steel by thermofriction turn-milling. When studying the process in this work there are presented the results of studying chip formation when the processing of chip formation there is used the metallographic method. Chip root area investigated. The dependence of the chip shrinkage coefficient on the cutting speed and feed was also investigated. It is established that with increasing supply S the value of the chip shrinkage coefficient K decreases. The higher the chip shrinkage factor, the more work will be required to cut the chips and the more complex the processing process.

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