PSI - Issue 82

Marko Katinić et al. / Procedia Structural Integrity 82 (2026) 220 – 226 M. Katinić, P. Konjatić/ Structural Integrity Procedia 00 (2026) 000–000

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Trebuňa, P., Pástor, M., Trebuňa, F., Šimčák, F., 2017. The Analysis of Failure Causes of The Rotor Shaft of Steam Turbines, Metalurgija 56(1-2), 233-236. Nikravesh, M. Y., Sharafi, M. M., 2016. Failure of a steam turbine rotor due to circumferential crack growth influenced by temperature and steady torsion, Engineering Failure Analysis 66, 296-311. Vinod, P. S., Prashanth, A. S., 2020. Failure Analysis of Steam Turbine Rotor Due to Low Flow Conditions, International Research Journal of Engineering and Technology (IRJET) 7(8). Katinić, M., Kozak, D., Gelo, I., Damjanović, D., 2019. Corrosion fatigue failure of steam turbine moving blades: A case study, Engineering Failure Analysis 106, 104-136. Qiqi, H,, Song, X., Hongmei, H., Fengtao, Hu., Hong, C. G., Wei, Hu., 2023. Fatigue fracture failure analysis of 12Cr12Mo steam turbine blade, Engineering Failure Analysis 150, 107356. Segura, J. A., Castro, L., Rosales, I., Rodriguez, J. A., Urquiza, G., Rodriguez, J. M., 2017. Diagnostic and failure analysis in blades of a 300 MW steam turbine, Engineering Failure Analysis 82, 631-641. Mazur, Z., Garcia-Illescas, R., Aguirre-Romano, J., Perez-Rodriguez, Norberto., 2008. Steam turbine blade failure analysis, Engineering Failure Analysis 15(1–2), 129-141. Wei, Y., Li, Y., Lai, J., Zhao, Q., Yang, L., Lin, Q., Wang, X., Pan, Z., Lin, Z., 2020. Analysis on corrosion fatigue cracking mechanism of 17 4PH blade of low pressure rotor of steam turbine, Engineering Failure Analysis 118, 104925. Ramírez, J. A. R., Mirafuentes, C., M., C., Garibay, M. A. Z., Castrejón, J. C. G., Anaya, L. G. G., 2023. Corrosion Fatigue Analysis in Power Steam Turbine Blade, Metals 13, 544. Katinić, M., Travica, D., Konjatić, P., Bošnjaković, M., 2023. Finite Element Analysis of a Shrink Fitted Disc-Shaft Rotating System, Technical Gazette 30(6), 1176-11783.