Thermodynamic Investigation of Liquid Alloys in Ga-Sb-Bi-Sn System

Abstract:

The results of thermodynamic investigation of some liquid alloys in Ga-Sb-Bi-Sn system, obtained by calculation according to different thermodynamic predicting methods, are presented in this paper. The research was done based on the known experimentally obtained thermodynamic properties of related binary and ternary subsystems. Calculated data on a Ga-Sb-Bi-Sn system include thermodynamic properties for liquid alloys at temperature of 900K in chosen sections of investigated quarternary system with molar ratios of Sn:Sb:Bi = 6:3:1; 8:1:1 and 6:1:3.

• Periodical: Materials Science Forum (Volume 502)
• Pages: 123-128
• DOI: https://doi.org/10.4028/www.scientific.net/MSF.502.123
• Online since: December 2005
• Authors: Dragana Živković, Iwao Katayama, Živan Živković, Dragan Manasijević
• Keywords: Ga-Sb-Bi-Sn System, Liquid Alloys, Predicting Methods, Semiconductor, Thermodynamic

References

[1] Katayama I., Nakayama J., Nakai T., Kozuka Z., Trans. JIM, 28 (2) (1987) 129.

[2] Bergman C., Laffite M., Muggianu Y., High Temp. - High Press, 6 (1974) 53.

[3] Anderson T.J., Aselage T.L., Donaghey L.F., J. Chem. Thermodyn., 15 (1983) 927.

[4] Aselage T., Chang K.M., Anderson T.J., CALPHAD, 9 (3) (1985) 227.

[5] Sharma R.C., Ngai T.L., Chang Y.A., J. Electron. Mater., 16 (5) (1987) 307.

[6] Sestak J., Sestakova V., Zivkovic Z., Zivkovic D., Pure Appl. Chem., 67 (11) (1995) 1885.

[7] Ravindra Reddy S., Hajra J.P., Mater. Sci. Eng., B20 (1993) 308.

[8] Katayama I., Nakayama J.I., Ikura T., Kozuka Z., Iida T., Mat. Trans. JIM, 34 (9) (1993) 792.

[9] Predel B., Frebel M., Gust W., J. Less Comm. Met., 17 (1969) 391.

[10] Gambino M., Bros J.P., Agersch F., Ansara I., Thermochim. Acta, 14 (1974) 305.

[11] Moser Z., Rzyman K., Arch. Metall., 32 (1987) 3.

[12] Yatsenko S.P., Danilin V.N., Neorgan. Mater., 4 (1968) 863.

[13] Katayama I., Maki K., Nakano M., Iida T., Mat. Trans. JIM, 37 (5) (1996) 988.

[14] Danilin V.N., Yatsenko S.P., Izv. Akad. Nauk SSSR, Metall, 5 (1968) 14.

[15] Anderson J., Ansara I., J. Phase Equilib., 13 (1992) 181.

[16] Predel B., J. Less-Common Met., 7 (1964) 347.

[17] Feutelais Y., Morgant G., Didry J.R., CALPHAD, 16 (2) (1992) 111.

[18] Taskinen P., Teppo O., Scand.J. Metall., 21 (3) (1992) 138.

[19] Zivkovic Z., Zivkovic D., Sestak J., J. Therm. Anal., 43 (2) (1995) 417.

[20] Oh C.S., Shim J.H., Lee B.J., Lee D.N., J. Alloys Comp., 238 (1996) 155.

[21] Malakhov D.V. et al., J. Phase Equilibria 21 (2000) 514.

[22] Zivkovic D., Zivkovic Z., Sestak J., CALPHAD, 23 (1) (1999) 113.

[23] Zivkovic D., Zivkovic Z., Vucinic B., J. Therm. Anal. Cal., 61 (2000) 263.

[24] Zivkovic D., Zivkovic Z., Stuparevic L., Rancic S., J. Therm. Anal. Cal., 65 (2001) 805.

[25] Katayama I., Fukuda Y., Hattori Y., Maruyama T., Thermochim. Acta, 314 (1998) 175.

[26] Zivkovic D., Katayama I., Kostov A., Zivkovic Z., J. Therm. Anal. Cal., 71 (2003) 567.

[27] Muggianu Y.M., Gambino M., Bros J.P., J. Chim. Physique, 72 (1) (1975) 83.

[28] Katayama et al., Proceedings of the International Workshop on Designing of Interfacial Structures in advanced Materials and their Joints (DIS'03), Vienna, Austria, 13-16 July 2003, p.91.

[29] Hoch M., CALPHAD, 11 (2) (1987) 219.

[30] Li R.Q., CALPHAD, 13 (1) (1989) 61.

[31] Chou K.C., Wei S.K., Met. Mater. Trans., 28B (1997) 439.

[32] Toop G.W., Trans. Met. Soc. AIME, 233 (1965) 850.

[33] Kohler F., Monatsh. Chem., 91 (1960) 738.

[34] Muggianu Y.M., Gambino M., Bross J.P., J. Chimie Physique, 72 (1975) 83.

[35] Katayama I., Yamazaki K., Hattori Y., Iida T., Mat. Trans. JIM, 41 (2) (2000) 251.