APA 6th Edition Tonkovič, M.P., Kosec, L., Lamut, J., Gontarev, V. i Samardžija, Z. (2002). Mechanism of the Oxidation of the Fe-C-Si-Al-Zr Alloys. Metalurgija, 41 (1), 17-22. Preuzeto s https://hrcak.srce.hr/128601
MLA 8th Edition Tonkovič, M. P., et al. "Mechanism of the Oxidation of the Fe-C-Si-Al-Zr Alloys." Metalurgija, vol. 41, br. 1, 2002, str. 17-22. https://hrcak.srce.hr/128601. Citirano 21.09.2019.
Chicago 17th Edition Tonkovič, M. P., L. Kosec, J. Lamut, V. Gontarev i Z. Samardžija. "Mechanism of the Oxidation of the Fe-C-Si-Al-Zr Alloys." Metalurgija 41, br. 1 (2002): 17-22. https://hrcak.srce.hr/128601
Harvard Tonkovič, M.P., et al. (2002). 'Mechanism of the Oxidation of the Fe-C-Si-Al-Zr Alloys', Metalurgija, 41(1), str. 17-22. Preuzeto s: https://hrcak.srce.hr/128601 (Datum pristupa: 21.09.2019.)
Vancouver Tonkovič MP, Kosec L, Lamut J, Gontarev V, Samardžija Z. Mechanism of the Oxidation of the Fe-C-Si-Al-Zr Alloys. Metalurgija [Internet]. 2002 [pristupljeno 21.09.2019.];41(1):17-22. Dostupno na: https://hrcak.srce.hr/128601
IEEE M.P. Tonkovič, L. Kosec, J. Lamut, V. Gontarev i Z. Samardžija, "Mechanism of the Oxidation of the Fe-C-Si-Al-Zr Alloys", Metalurgija, vol.41, br. 1, str. 17-22, 2002. [Online]. Dostupno na: https://hrcak.srce.hr/128601. [Citirano: 21.09.2019.]
Sažetak Mechanism of the oxidation of the thermal-resistant Fe-C-Si-Al-Zr alloys was investigated at high temperatures. For the analysis three series samples: L1, L2 and L3, had been annealed at 1100 °C, were cast. After annealing the samples were investigated on the oxide thickness increase. They were observed and analysed by optical and electron microscopes. In case of the small zirconium content in the L1 sample, the graphite lamellae and only a significant amount of zirconium carbide in the ferrite matrix have been observed. At higher zirconium content (the L2 and L3 samples) graphite lamellae and particles of ZrC have been observed. During annealing an oxidation of graphite and ZrC took place. The oxidation of ZrC into ZrO2 is direct and progressive. Evolving CO gas formed the pores around ZrO2. Under sufficient amount of the dissolved oxygen the oxidation of aluminium was taking place too. Al2O3 was precipitating in the CO-ferrite interface filling up the formed pores. Finally the interaction between ZrO2 and Al2O3 were taking place and formation the compound of ZrO2·Al2O3 retarded further oxidation.