Page 332 - Кулик В.В.
P. 332
332
thermally affected zone formed during railway wheel skid. Wear. Vol. 232. P. 15–
24.
261. Wu T.X., Thompson D.J. A hybrid model for the noise generation due
to railway wheel flats. Journal of Sound and Vibration. 2002. Vol. 251, No 1.
P. 115–139.
262. Pieringer A., Kropp W., Nielsen J.C.O. The influence of contact
modelling on simulated wheel/rail interaction due to wheel flats. Wear. 2014. Vol.
314. P. 273–281.
263. Kanojea N.K., Sharma S.C., Harsha S.P. EPFM analysis of subsurface
crack beneath a wheel flat using dynamic condition. Procedia Materials Science.
2014. Vol. 6, No 6. P. 43–60.
264. Wallentin M., Bjarnehed H.L., Lundén R. Cracks around railway
wheel flats exposed to rolling contact loads and residual stresses. Wear. 2005. Vol.
258 P. 1319–1329.
265. Jergeus J. Railway wheel flats – martensite formation, residual
stresses, and crack propagation. PhD Thesis. Department of Solid Mechanics,
Chalmers University of Technology, Goteborg, Sweden, 1998.
266. Sawley K.J., Rosser J.A. Tread damage in disc-braked wheels.
Proceedings of the 9th International Wheelset Congress. Montreal, Canada, 1988.
P. 5.4.1–5.4.10.
267. Wang W.J., Shen P., Song J.H., Guo J., Liu Q.Y., Jin X.S.
Experimental study on adhesion behavior of wheel/rail under dry and water
conditions. Wear. 2011. Vol. 271. P. 2699–2705.
268. Jergeus J. Martensite formation and residual stress around railway
wheel flats. Proceedings of the Institution of Mechanical Engineers Part F Journal
of Rail and Rapid Transit. 1998. Vol. 212. P. 69–79.
269. Seo J.W., Kwon S.J., Jun H.K., Lee D.H. Numerical stress analysis
and rolling contact fatigue of White Etching Layer on rail steel. International
Journal of Fatigue. 2011. Vol. 33. P. 203–211.
270. Carroll R.I., Beynon J.H. Rolling contact fatigue of white etching