Research Methods of Milling Technology Elements

Abstract:

The increasing of vibration stability for the technological system is always the vital task for different material processing. Vibration stability increasing methods are divided into constructive and technological. It’s necessary to take into consideration different factors such as vibration whence, vibration parameters, immediate changing of processing mode possibility while choosing the method of vibration decreasing for the technological systems. The present article is reviewing the research methods of milling technology elements as one of the basis of technological methods for increasing of vibration stability.

• Periodical: Applied Mechanics and Materials (Volume 756)
• Pages: 35-40
• DOI: https://doi.org/10.4028/www.scientific.net/AMM.756.35
• Online since: April 2015
• Authors: Alexey Gavrilin, Boris Moyzes, A.I. Cherkasov
• Keywords: Chatter Stability, Cutting Parameters, Geometry of the Cutting Tool, Machining Centre, Technological System, Vibration

References

[1] S.A. Bolsunovskij, V.D. Vermel', G.A. Gubanov, A.V. Kazhan, Experience in manufacturing of super accurate turbo compressor fan blade under the pilot production conditions, J. SAPR i grafica. 3 (2009) 80-82.

[2] S.A. Bolsunovskij, V.D. Vermel', G.A. Gubanov, I.N. Kacharava, A.E. Leont'ev, Testing of experimental computation of technological and rational parameters for high production milling processing as a part of automation system of technological implementation for production of aircraft aerodynamic model, J. Izvestiya of Samara Scientific Center, Russian Academy of Sciences. 4 (2) (2012).

[3] V.N. Andreev, G.V. Borovskij, V.G. Borovskij, S.N. Grigor'ev, Tool for high production and sustainable cutting, Mashinostroeniye, Moscow, (2010).

[4] N.A. Kochinev, F.S. Sabirov, M.P. Kozochkin. RU State Registration Certificate of computer program 2009613214 (2009).

[5] I.G. Zharkov Vibration at tool cutting. Moscow: Mashinostroeniye, (1986).

[6] Information on http: /www. vitec. ru/pdfs/RU/k-5101. pdf.

[7] A.N. Gavrilin, B.B. Moyzes Method of active diagnostics of а machine tool for cutting of solids of revolution, J. Kontrol'. Diagnostika. 9 (2013) 81–84.

[8] A.N. Gavrilin, A.I. Cherkasov, B.B. Mojzes Constructive methods of vibrostability increasing of а metal-working machinery, J. Kontrol'. Diagnostika. 13 (2013) 82-87.

[9] A.N. Gavrilin, Method to reduce vibration when mechanical machining, J. Kontrol'. Diagnostika. 11 (2013) 23-26.

[10] A.I. Nizhegorodov, Hydro-volume vibratory drive of testing stand for amplitude-modulated vibration excitation, J. Stroitel'nye I dorozhnye mashiny. 5 (2014) 30-33.

[11] A.V. Barkov, N.A. Barkova, Vibration diagnostics of machinery and equipment. Analysys of vibration, St. Petersburg State Naval Technical University, St. Petersburg, (2004).

[12] N.A. Barkova, A.A. Borisov, Vibration diagnostics of machinery and equipment. Basic vibration frequency analysis of machine parts, facility measuring parameters and applied expert study. St. Petersburg State Naval Technical University, St. Petersburg, (2009).

DOI: 10.31799/978-5-8088-1446-2-2020-15-203-210

[13] V.V. Fedorishchev, Visual and gauging control and control of equipment health, SEVZAPUCHTSENTR, St. Petersburg, (2008).

[14] Information on http: /www. vibrotek. ru/russian/ biblioteka/book15.

[15] I.A. Birger, Technical diagnostics, Мashinostroyenie, Moscow, (1978).

[16] A.S. Goldin, Rotary machines vibration, Мashinostroyenie, Moscow, (1999).

[17] V.A. Rusov, Spectral vibration-based diagnostics, VIBRO-TSENTR, Perm, (1996).

[18] Information on http: /www. vibrotek. ru/russian/biblioteka/book34.

[19] P.A. Lontsykh, Dynamic quality maintenance of machine-tools on the basis of diakoptic methods and diagnostics results, Irkutsk State Technical University. Univ, Irkutsk, (2004).