Search Results

1 - 10 of 11 items :

  • "fretting wear" x
Clear All

-401, pp. 62-73 Kowalski S. (2016). Application of dimensional analysis in the fretting wear studies. Journal of the Balkan Tribological Association, Vol. 22, No 4, pp. 3076-3088 Kowalski S. (2018). Assessment of the possibility of the application of a CrN+OX multi-layer coating to mitigate the development of fretting wear in a press-fit joint. Wear 398-399, pp. 13-21 Kowalski S. (2016). Influence of molybdenum coating on fretting wear development in clamped joint. Journal of the Balkan Tribological Association, Vol. 22, No 2A-I, pp. 1741-1752 Kowalski S. (2018). The

Y., Zhang J., Zeng D., Fretting wear-induced evolution of surface damage in press-fitted shaft , Wear, 384–385, 2017, 131–141. [7] Song C., Shen M.X., Lin X.F., Liu D.W., Zhu M.H., An investigation on rotatory bending fretting fatigue damage of railway axles , Fatigue Fract Engng Mater Struct, 37, 2014, 72–84. [8] Guzowski S., Analysis of fretting wear in clamped joints on example of rail vehicle wheelset axles . Monograph 284, Krakow: Cracow University of Technology Press, 2003. [9] Gies A., Chudoba T., Schwarzer N., Becker J., Influence of the coating

within the contact. Lack of modelling is widely acknowledged in the case of fretting. In the cases of both fretting-wear and fretting-fatigue, a third-body approach is a basic need, since a particle must stay for a certain period in the interface before being ejected. Wear induced by fretting has been described in fretting maps [ 8 ]. The influence of specimen hardness steel-on-steel fretting contact was examined. In equal-hardness pairs, a variation in the wear volume of around 20% across the range of hardnesses examined was observed. However, in pairs where the two

Abstract

Three types of sintered alloys were fabricated based on cobalt, nickel and high-temperature alloy ZhS32-VI matrix with titanium carbide strengthening phase. TiC content was in a range of 30–50 vol. %. The melting temperatures of alloys are higher than 1320°C, and they may undergo undamaged through all technological procedures together with turbine blades, including soldering and outgassing. DSC analyses indicates no additional thermal effects until melting, which confirms their structural stability. The examinations of microstructure revealed three types of constituents – TiC particles, matrix solid solution and blow outs – structural defects having negative effects on all the studied properties. It was found that heat resistance of nickel based sintered alloys at the temperature of 1100°C is superior as compared with the alloys based on cobalt and alloy ZhS32-VI. It has been established that wear resistance in conditions of fretting wear at temperatures of 20, 850, 950 and 1050°C of sintered alloy with ZhS32-VI matrix is mostly superior as compared with the other alloys. The properties of produced alloys allow to use them for manufacturing of components of friction couples operating in conditions of high temperature fretting wear, including protective pads of turbine blades top shrouds contact faces.

- 371. 7. Kulesza E., Dabrowski J.R., Sidun J., Neyman A., Mizera J. (2012) Fretting wear of materials - Methodological aspects of research, Acta Mechanica et Automatica, Vol. 6, No. 3, 58-61. 8. Lewis R. W., et al. (2004), Fundamentals of the Finite Element Method for Heat and Fluid Flow, Wiley, 356. 9. Lienhard IV, H. J., Lienhard V, H. J., (2012), A Heat Transfer Textbook, Fourth Edition, Phlogiston PressCambridge, Massachusetts, U.S.A. 10. Praslička D., Blažek J., Šmelko M., Hudák J., Čverha A., Mikita I., Varga R., Zhukov A., (2013), Possibilities of measuring

TLSO with a dynamic thoracic brace pad for idiopathic scoliosis, 5th International Conference on Conservative Management of Spinal Deformities, Athens, Greece, 1-1. 7. Krištof M., Hudák R., Takáčová A., Živčák J., Fialka L., Takáč R. (2010), Contact pressure measurement in trunk orthoses, IEEE International Joint Conferences on Computational Cybernetics and Technical Informatics, Timişoara, Romania, 175-179. 8. Kulesza E., Dąbrowski J. R., Sidun, J., Neyman A., Mizera J. (2012), Fretting wear of materials-Methodological aspects of research, Acta Mechanica et

://www.fuchs.com/de/en . (accessed 10 Dec 2019) 21. D. Jakubéczyová, M. Hagarová, I. Štěpánek: Evaluation of thin PVD coatings by adhesive-cohesive test. Annals of Faculty Engineering Hunedoara - International Journal of Engineering 2011 , 9 (1), 79-82. 22. M. Hagarová, D. Jakubéczyová, G. Baranová, M. Eliáš: Adhesion determination of thin wear resistant coatings. Materials Science Forum 2019 , 952, 107-113. 23. E. Zdravecká, V.M. Tiainen, Y.T. Konttinen, L. Franta, M. Vojs, M. Marton, M. Ondáč, J. Tkáčová: Relationships between the fretting wear behavior and mechanical properties of thin

Science”, 11/2015, 49–54. [13] Akhtar F., Guo S.J., Microstructure, mechanical and fretting wear properties of TiC-stainless steel composites , Materials Characterization, 59, 2008, 84–90. [14] Pagounis E., Lindroos V.K., Processing and properties of particulate reinforced steel matrix composites , Materials Science and Engineering A, 246, 1998, 221–234. [15] Shaojiang L., Weihao X., Corrosion Behaviour of Powder Metallurgy Processed TiC/316L Composites with Mo Additions , The Minerals, Metals & Materials Society, 67(6), 2015, 1362–1369. [16] Shaojiang L., Weihao X

coefficients of friction, ( http://www.engineeringtoolbox.com/friction-coefficients-d_778.html ) 33. Varenberg M., Halperin G., Etsion I. (2002), Different aspects of the role of wear debris in fretting wear, Wear , 252(11-12), 902-910. 34. Vilhena L.M., Sedlaček M., Podgornik B. et al. (2009), Surface texturing by pulsed Nd:YAG laser, Tribology International, 42(10), 1496-1504. 35. Wahl R., Schneider J., Gumbsch P. (2012), Influence of the real geometry of the protrusions in microtextured surfaces on frictional behaviour, Tribology Letters , 47(3), 447-453. 36

., Mańka E., Matuszewski M., Madej M., Ozimina D. (2015), Tribological problems in shaft hoist ropes wear process, Industrial Lubrication and Tribology , 67(1), 47-51. 24. Wang X.Y., Meng X.B., Wang J.X., Sun Y.H., Gao K. (2015), Mathematical modeling and geometric analysis for wire rope strands, Applied Mathematical Modelling , 39(3-4), 1019-1032. 25. Xu L.M., Zhang D.K., Yin Y., Wang S.Q., Wang D.G. (2014), Fretting wear behaviors of hoisting rope wires in acid medium, Materials & Design , 55, 50-57. 26. Zhang D.K., Feng C.A., Chen K., Wang D.G., Ni X. (2017