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DOI:http://dx.doi.org/10.26855/ea.2022.06.008

Effect of Various Formulations onto Turbine Oil Compatibility

Date: March 21,2022 |Hits: 569 Download PDF How to cite this paper

Mirko Petković1,*, Valentina Petković1, Pero Dugić2, Tatjana Botić2, Milorad Maksimović2, Zoran Petrović3

1Oil Refinery Modriča, JSC, Modriča, Bosnia and Herzegovina. 

2Faculty of Technology, Banja Luka, Bosnia and Herzegovina. 

3Faculty of Technology, Zvornik, Bosnia and Herzegovina.

*Corresponding author: Mirko Petković

Abstract

Once turbine oil has completed its life cycle, it needs to be replaced. However, changing the oil that has been in the system for a prolonged period of time, or addition of new oil into the system inevitably brings certain risks. Such risks are related to: condition of the turbine system, outdated equipment, lack of knowledge about the chemical additives in the formulation of the old lubricant and compatibility of the new oil with the old one. In order to meet new, more stringent specifications imposed by turbine manufacturers, whereby such specifications are in direct correlation with performance improvement and oil longevity, a new generation of turbine oil has been formulated using Group II base oils and a package of “ashless” additives. Such formulation is not fully compatible with standard, traditional types of turbine oils. Incompatibility can cause difficulties in operation, as well as a complete breakdown of the turbine system. There are many standards that provide compatibility testing guidelines. Compatibility testing methods include preparation of lubricant mixtures. This paper assessed the compatibility of the steam turbine oils formulated by using a traditional, standard base oil and additive package, as opposed to a new turbine oil formulated with the same manufacturer ashless additive package together with the Group II base oil.

References

[1] M. Petković, P. Dugić, V. Petković, M. Maksimović, Z. Petrović. (2012). “Rerafination of Used Turbine Oils of ISO VG 32 Viscosity Grade” (orig. “Rerafinacija korišćenih turbinskih ulja viskozne gradacije ISO VG 32”), Energy Counselling, “Energetika 2012”. Zlatibor. 

[2] V. Petković, O. Kovač, M. Petković. (2011). “The Advantage of HC Oils in Turbine Oil Formulation” (orig. “Prednost HC ulja u formulaciji turbinskih ulja”) GOMA - Poreč. 

[3] M. Petković, V. Petković, P. Dugić, M. Maksimović. (2007). “Rerafination of Used Turbine Oil with In-House Developed Adsorbent” (orig. “Rerafinacija korišćenog turbinskog ulja sa domaćim adsorbensom”), Energy Counselling, “Energetika 2007”. Zlatibor. 

[4] Slobodan M. Sokolović. (1998). “Technology of Production and Application of Liquid Lubricants” (orig. “Tehnologija proizvodnje i primena tečnih maziva” Faculty of Technology Novi Sad, Novi Sad, Serbia. 

[5] IP 280 – Petroleum products and lubricants — Inhibited mineral turbine oils — Determination of oxidation stability. 

[6] ASTM D 943 - Standard Test Method for Oxidation Characteristics of Inhibited Mineral Oils. 

[7] ASTM D 2272 - Standard test method for Oxidation stability of steam turbine oils by rotating pressure vessel.

[8] ASTM D 2619 - Standard Test Method for Hydrolytic Stability of Hydraulic Fluids (Beverage Bottle Method).

[9] ASTM D 665 - Standard Test Method for Rust-Preventing Characteristics of Inhibited Mineral Oils in the presence of Water. 

[10] Macura-Strajin, P., Škundrić-Penavin, J., Lazić, D., Dugić, P., Petković, M. (2009). “Oxydation kinetics of hydrocracked base oil HC 32/130” (orig. Kinetika oksidacije hidrokrekovanog baznogulja HC 32/130), The Journal of Chemists, Technologists and Environmentalists of the Republic of Srpska No.1, str. 51-56, Banja Luka. ISSN-1840-054X. UDK 544.427. 

[11] Adhvaryu, A., Erhan, S. Z., Sahoo, S. K., et al. (2002). Thermo-oxidative stability studies on some new generation API group II and III base oils, Fuel 2002, 81: 785-791.

[12] Adhvaryu, A., Erhan, S. Z., Singh, I. D. (2002). Application of Qusntitstive 13C-Nuclear Magnetic Resonance Spectroscopy to the Characterisation of Solvent Refined Aromatic—Rich Lubricant Base Oils, Lubrication Science 15.

[13] Adhvaryu, A., Sharma, Y. K., Singh, I. D., et al. (1999). Studies on the oxidative behavior of base oils and their chromatogra-phicfractions. Fuel, 78: 1293-1302.

[14] Ameye, J., Krethe, R. (2006). Linear Sweep Voltammetry (RULER©)—An innovative approach for Looking Forward to Lubricant Oxidation. ESSEN 2006.

[15] An, J. X., Xing. C. Lv. L. (2015). The current status and development trend for supply and demand of base oils at home and abroad. Petroleum Products Application Research, (1): 11-19.

[16] Barman, B. N. (2002). Behavioral differences between group I and group II base oils during thermo-oxidative degradation. Tribology International, 2002, 35: 15-26.

[17] Basu, B., Singh, M. P., Kapur, G. S., et al. (1998). Prediction of biodegradability of mineral base oils from chemical composition using artificial neural networks. Tribology International, 31(4): 159-168.

[18] Bernoux, P., Kleinitz, W., Ryszfeld. C., Zinddani, E. (2007). GTL in the Tail-End Phase of Gas Fields, 2nd Internationalna Freiberg Conference on IGCC & XtL Technolgies Freiberg, 8th-12th May, 2007.

[19] Cerny, J., Pospisil, M., Sebor, G. (1994). Composition and Oxidative Stability of Hydrocracked Base Oils and Comparison with a PAO, Department of Petroleum Technology and Petrochemistry, Institute of Chemical Technology Prague, Czech Republic, 1994.

[20] Chen, W. Y., Zou, K., Wang, X. W., et al. (2014). Research of properties and composition of several base oils by hydrocracking process. Petroleum Processing and Petrochemicals, 45(10): 94-98.

[21] Denis, J., Briant Sequeira, J. (2000). Lubricant Base Oil Processing, Lubrication Engineering, No. 1, Vol. 75.

[22] Dong, J., Van de Voort, F. R., Ismail, A. A., et al. (2000). Rapid determination of the carboxylic acid contribution to the total acid number of lubricants by Fourier transform infrared spectroscopy. Lubrication Engineering, 56(6): 12-20.

[23] Farkas, F. N., Baumann, K., Leimeter, T. (2007). Optimizing the Thermo-oxidations stabillity of gas turbine Oils, 40th Symposium LUBRICANTS 2007, Pula 24-26.10.2007.

[24] Gao, S. B., Liu, H. B., Wang, X. M., et al. (2010). Effect of Base Oil Composition on Lubricant Performance, Chemical Technology Market, 33(9): 36-39. 

[25] Gatto, V., Moehle, B., Schneller, E., Cobb, T. (2005). Oxidation Fundamentals & Its Application to Turbine Oil Testing, Norfolk, VA, 2005.

[26] Gooss, W., Korn, A. (2001). New Metod of Chemical Composition on modern Automatic Lubricant Base Oils, 2nd World Tribology Congress, 3-7 septembar, Viena, 2001.

[27] Habereder, T. (2006). Ashless additive technology for modern turbine oils, Lubricants Russia 2006. WTC, Moscow.

[28] Haus, F., Boissel, O., Junter, G. A. (2003). Multiple regression modelling of mineral base oil biodegradability based on their physical properties and overall chemical composition. Chemosphere, 2003, 50(7): 939-948.

[29] Haus, F., Geman, J., Junter, G. A. (2001). Primary biodegradability of mineral base oils in relation to their chemical and physicalcharacteristics. Chemosphere, 45(6): 983-990.

[30] Hu, S. W., Guo, Q. Z., Xia, G. F., et al. (2015). Influence of Composition on Properties of Lube Base Oils Produced by Hydroisomerization Dewaxing Process, Acta Petrolei Sinica (Petroleum Processing Section), 31(4): 831-835. 

[31] Jessop, P. G., Ahmadpour, F., Buczynski, M. A., Burns, T. J., Green, N. B., Korwin, R., Long, D., Massad, S. K., Manley, J. B., Omidb, N.,et al. (2015). Opportunities for greener alternatives in chemical formulations, Green Chem., 17, 2664-2678.

[32] Jiang, J. J., Liu, Y. R., Liu, Z. L., et al. (2016). Paraffins species distribution analysis in petroleum middle fractions by GC field ionization time-of-flight mass spectrometry. Chinese Journal of Analytical Chemistry, 44(3), рр. 416-422.

[33] Kramer, D. C., Ziener, J. N., Cheng, M. T., Fry, C. E., Reynolds, R. N., Lok, B. L., Sztenderovitz, M. I., Krug, R. R. (1999). Influence of group II & III Base Oil Composition on VI and oxidation stability, Chevron Global Lubricants, Richmond, CA 94802-0627. Presented at the 66th NLGI Annual Meeting, Tuscon, Arizona.

[34] Kuhlman, R. E. (2013). Environmentally Friendly Lubrication Issues in Encyclopedia of Tribology, Volume 2, pp. 985-991.

[35] Quick, L. (2005). New turbine and lubricant technology requires new customer focused oil monitoring methods, ASTM Symposium, Dec, 5th, 2005. Norfolk, VА.

[36] Rajendiran, A., Krishnasamy, K., Kabilan, S., et al. (2014). Thermal, spectral, oxidation stability and antioxidant behavior on Group II base oils. Fuel, 137: 122-134.

[37] Shirakura, Y., Aoki, S., Shinoda, J., Yamada, R. (2016). New management approach for turbine oils, STLE, Las Vegas, May 15-19, 2016.

[38] Wang, N. X., Liu, Z. L., Zhu, X. Y., et al. (2014). Study on hydrocarbon compositions of paraffins in hydrocracking tail oil by mass spectrometry. Petroleum Processing and Petrochemicals, 45(5): 94-100.

How to cite this paper

Effect of Various Formulations onto Turbine Oil Compatibility

How to cite this paper: Mirko Petković, Valentina Petković, Pero Dugić, Tatjana Botić, Milorad Maksimović, Zoran Petrović. (2022). Effect of Various Formulations onto Turbine Oil CompatibilityEngineering Advances2(1), 88-100.

DOI: http://dx.doi.org/10.26855/ea.2022.06.008

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