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The interfacial tension at the Na2O-Li2O-SiO2-B2O3 slag-steel boundary has been determined in the temperature range of 1 803-1 873K by sessile drop method with the transmission X-ray technique. It was found that the variation of interfacial tension with temperature in the system of molten steel/Na2O-Li2O-SiO2-B2O3 slag in the temperature range of 1 803-1 873K is pretty little. The interfacial tension remarkably decreases with increasing the oxygen and/or sulfur content in molten steel. It suggesed that the oxygen and sulfur dissolved in molten steel act as a surface-active solute at the slag-steel interface. Consequently, the interfacial tension depends, in most part, on the oxygen content in molten steel, but the composition of the slag has a minor effect on the interfacial tension. In order to clear the effect of slag composition on the interfacial tension, the experimental results are discussed. The interfacial tension is observed to increase with increasing Na2O and Li2O contents, and decrease with increasing silica content in slag. The influence of B2O3 on the interfacial tension is pretty little.

参考文献

[1] MoriK;Fujimura T .[J].Iron and Steel,1955(41):495.
[2] Ogino K;Suetaki T;Niioka K et al.[J].Iron and Steel,1967(53):769.
[3] Kozakevitch P;Urbain G;Sage M .[J].Iron Coal Trade Rev,1955,29:963.
[4] Popeli S I;Esin O A;Nikitin F P et al.[J].Nauk SSSR,1952,83:253.
[5] Kozakevitch P;Urbain G;Sage M .[J].Memoires Scientifiques de la Revue de Metallurgie,1953,52:161.
[6] Popel S I;Konovalov G F;VUZov Izv .[J].Cher Metall,1959,8:3.
[7] Gaye H;Lucas L D;Olette M.International Symposium on Interface Phenomena in Metallurgical Systems[C].Can Inst Min Met Hamilton,1981
[8] Shinozaki N;kurashige T;Mori K et al.[J].Journal of the Japan Institute of Metals,1982(46):60.
[9] Adachi A;Ogino K;Suetaki T et al.[J].Iron and Steel,1965(51):1857.
[10] Ogino K;Hara S;Adachi A .[J].Iron and Steel,1973(59):28.
[11] Mukai K;Kato T;Sakao H .[J].Iron and Steel,1973(59):55.
[12] OginoK;HaraS .[J].Iron and Steel,1977(63):2141.
[13] GammalT El;MullenbergR D .[J].Archives of Eisenhiittenwes,1980,51:221.
[14] Makenzie C K;Minto R;Davenport W G .[J].Canadian Metallurgical Quarterly,1975,14:191.
[15] Bashforth F;Adams S C.[M].An Attempt to Test the Theories of Capillarity,1983
[16] Rotenberg Y;Boruvka L;Neumann A .[J].Journal of Colloid and Interface Science,1983,93:169.
[17] Ueshima Y;Komatsu N;Mizoguchi S et al.[J].Iron and Steel,1987(73):1551.
[18] Mukai K;Yuan Z.[J].CAMP-ISIJ,1999(12):194.
[19] Yu Z;Mukai K .[J].Journal of the Japan Institute of Metals,1995,59:806.
[20] Girifalco L A;Good R J .[J].Journal of Physical Chemistry,1957,61:904.
[21] Ogino K;Hara S;Miwa T et al.[J].Transactions of the Iron and Steel Institute of Japan,1984,24:522.
[22] Gaye H;Lucas L D;Olette M et al.[J].Canadian Metallurgical Quarterly,1984,23:179.
[23] Keene B J;Mills K C;Bryand J W et al.[J].Canadian Metallurgical Quarterly,1982,21:393.
[24] Gohler M .[J].Neue Hutte,1962,7:212.
[25] Deev G F;Pastkevitch I R .[J].Avtoma Svarka(in Russian),1971,24:5.
[26] Boton M;Vulchev I .[J].Metallurgiya Sofia,1974,29:5.
[27] Cmolyarenko V D;Yakushev A M;Edneral F P et al.[J].Cher Metall,1956,3:36.
[28] Sun H;Nakashima K;Mori K .[J].ISIJ International,1994,7:323.
[29] Tanaka T;Iida T .[J].Thermo-Measurement,1991,18:174.
[30] Ooi H;Nozaki T;Yoshi Y .[J].Iron and Steel,1972,58:830.
[31] Shinozaki N;Fujike H;Mori K et al.[J].Tech Rep Kyushu Univ,1989,62:575.
[32] Adachi A;Ogino K;Suetaki T et al.[J].Iron and Steel,1965,51:1857.
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