Article

DOI: 10.5937/jaes0-24328
This is an open access article distributed under the CC BY 4.0

Volume 18 article 740 pages: 643 - 648

Asset Rakishev
Karaganda State Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

Almat Sagitov
Karaganda State Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

Bakytzhan Donenbaev
Karaganda State Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

Karibek Sherov*
Karaganda State Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

Sayagul Tussupova
Karaganda State Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

Nurgul Smakova
Karaganda State Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

Asylkhan Mazdubay
Pavlodar State University, Mechanical Engineering faculty, Department of Metallurgy, Pavlodar, Kazakhstan

Yernat Imanbaev
Karaganda State Technical University, Mechanical Engineering faculty, department "Technological equipment, mechanical engineering and standardization", Karaganda, Kazakhstan

The authors developed the design of a special multi-blade rotary-friction tool. The multi-blade rotary-friction tool is equipped with two cupped cutters – heating and cutting. The heating cupped cutter is made of medium-carbon structural steel of any brand, and the cutting cupped cutter is made of steel R6M5. The final formation of the treated surface and its quality is provided by the cutting cupped cutter. This article presents the results of the calculation of the strength of the cutting cupped cutter multi-blade rotary friction tool. As a result, the following were established: when processing steels 30HGSA cutting force components reach the maximum value than when processing materials 40HN2MA, St.45, and St.3c (calm); strength and rigidity of the cutting cupped cutter is sufficient for processing optimal cutting conditions: nsp = 1000 rpm; S = 0.42 mm/rot; t = 1.0 mm.

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