DOI 10.17586/0021-3454-2019-62-5-442-448
UDC 681.2.084; 620.179.112; 620.1.05
ACCURACY CHARACTERISTICS OF FRICTION MACHINES OF RECIPROCAL ACTION
ITMO University, Department of Mechatronics; Student
K. A. Nuzhdin
ITMO University, Department of Mechatronics; Post-Graduate Student
M. V. Abramchuk
ITMO University, Department of Mechatronics; senior lecturer
V. M. Musalimov
Institute for Problems in Mechanical Engineering of the Russian Academy of Sciences, Saint Petersburg, 199178, Russian Federation; Chief Researcher
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Abstract. Friction machines under consideration has a distinctive feature of implementation of forced movement of studied samples relative to each other due to force action transfer by friction. Analysis of evolution of structural components of the machines allowed to increase the accuracy characteristics of designed and developed friction machines by virtue of application of high-technology drives, precision guides, displacement sensors, as well as optimization of tribopair position. An original approach to comparing the errors of the machines of two design variants is proposed. The approach is based on the use of cyclic input-output diagrams for estimating the areas formed by the machines. Results of comparative analysis of qualitative characteristics and relative errors of the devices are presented.
References:
1. Certificate of authorship 1821689 RU, Ustroystvo dlya ispytaniya materialov na treniye (Device for Testing Materials for Friction), V.M. Musalimov, 1993. (in Russ.) 2. Patent 2289119 RU, Ustroystvo dlya ispytaniya materialov na treniye (Device for Testing Materials for Friction), V.M. Musalimov, Published 2006. (in Russ.) 3. Musalimov V.M., Valetov V.A. Dinamika friktsionnogo vzaimodeystviya (Dynamics of Frictional Interaction), St. Petersburg, 2006, 191 р. (in Russ.) 4. Patent 2600080 RU, Ustroystvo dlya issledovaniya tribotekhnicheskikh kharakteristik materialov (Device for the Study of the Tribotechnical Characteristics of Materials), V.M. Musalimov, Published 2016. (in Russ.) 5. Johnson K.L. Contact mechanics, Cambridge University Press, 1987, 452 p. 6. Musalimov V.M., Kalapyshina I.I., Nuzhdin K.A. Identifikatsiya dinamicheskikh sistem friktsionnogo vzaimodeystviya (MatLab)(Identification of Dynamic Friction Interaction Systems (MatLab)), St. Petersburg, 2017, 143 р. (in Russ.) 7. Latinskiy M.A. Korotkokhodnyy dvigatel' Konda–Kun (Short-Stroke Konda Kuhn Engine), Moscow, 1973, vol. 13. (in Russ.) 8. http://www.lmotion.ru/guidstandard.shtml. (in Russ.) 9. Musalimov V.M., Nuzhdin K.A. Journal of Friction and Wear, 2019, nо. 1(40), рр. 68–76. (in Russ.) 10. Korotkov V.P., Tayts B.A. Osnovy metrologii i teorii tochnosti izmeritel'nykh ustroystv (Fundamentals of Metrology and Theory of Measuring Device Accuracy), Moscow, 1978, 352 р. (in Russ.) 11. Rein L., Olev M. An Introduction to Metrology, Tallinn, TUT Press, 2011, 283 p. 12. Sergiyenko A.B. Tsifrovaya obrabotka signalov (Digital Signal Processing), St. Petersburg, 2002, 608 р. (in Russ.) 13. Meshcheryakov V.V. Zadachi po statistike i regressionnomu analizu s MatLab (Tasks on Statistics and Regression Analysis with MatLab), Moscow, 2009, 448 р. (in Russ.) 14. Lagutin M.V. Naglyadnaya matematicheskaya statistika (Visual Mathematical Statistics), Moscow, 2007, 472 р. (in Russ.) 15. Bendat J.S., Piersol A.G. Random Data: Analysis and Measurement Procedures, Wiley, 2010, 640 p. ISBN: 0470248777, 9780470248775