CHARACTER OF INTERACTION AND GLASS FORMATION IN THE As2Se3-In2Se3 SYSTEM
Abstract
The kharacter of the interaction and glass formation in the As2Se3-In2Se3 system was investigated by the methods of physicochemical analysis (DTA, XRD, MSA, as well as by measuring the microhardness and determining the density) and the T-x phase diagram was constructed. The formation of a new compound of composition InAsSe3 in the As2Se3-In2Se3 system is established. The InAsSe3 compound is formed as a result of a peritactic reaction at 725оС. It was found that this InAsSe3 compound crystallizes in the tetragonal system with lattice parameters: a = 9.20 ± 0.02; c = 5.42 ± 0.02 Å, Z = 4, density ρpycn = 5.25.103 kg/m3, ρx-ray. = 5.86.103 kg/m3. In the As2Se3-In2Se3 system, solid solutions based on As2Se3 at room temperature reach 2 mol % In2Se3, and based on In2Se3-3 mol. % As2Sе3. It was found that in the As2Sе3-In2Se3 system upon slow cooling based on As2Se3, the glass formation region reaches 7 mol. % In2Se3, and in the mode of quenching in ice water up to 13 mol. % In2Se3.
References
2. Dinesh Chandra SATI1, Rajendra KUMAR, Ram Mohan MEHRA // Turk J Phys, 2006. V. 30. P.519.
4. Seema Kandpal R.P.S.Kushwaha // Indian Academy of Sciences. PRAM ANA journal of physics 2007. V.69. № 3. P. 481.
5. Kolomiec B.T., Ryvkin S.M. // ZhTF . 1974.T. № 19. C.2041.
6. Churbanov M.F., Shirjaev V.S., Pushkin A.A., Gerasimenko V.V., Suchkov A.I. i dr. // Neorgan. materialy. 2007. T.43. № 4. S.501.
7. Churbanov M.F., Shirjaev V.S., Suchkov A.I., Pushkin A.A., Gerasimenko V.V. i dr. // Neorgan. materialy. 2007. T.43. № 4. S.505.
8. Moon J.A. and Schaafsma D.T. // Fiber and Integrated Optics, 2000 V.19. P. 201.
9. Slusher R.E., Lenz G., Hodelin J., Sanghera J., Shaw L.B., and Aggarwal I.D. // J. Opt. Soc. Am. 2004. B. 21. S 1146.
10. Jackson S.D. and Anzueto-Sánchez G. // Appl. Phys. Lett., 2006. V.88 P.221106.
11. Fu L.B., Fuerbach A., Littler I.C.M., and Eggleton B.J. // Appl. Phys. Lett. 2006. V.88. 081116.
12. Fu L.B., Rochette M., Ta'eed V., Moss D., and Eggleton B.J. // Opt. Express. 2005. V. 13. P. 7637.
13. Pudo D., Mägi E.C., and Eggleton B.J. Opt. Express 2006. V.14. P. 3763-3766.
14. Aliev I. I., Dzhafarova G. Z., Mamedova A. Z., Veliev Dzh. A. //Zhurn.neorgan. himii. 2015. T.60. № 2. S. 282. DOI: 10.7868/S0044457X15020026
15. Kim B.Y., Blake J.N., Engan H.E. and Shaw H.J. // Opt. Lett. 1986. V.11. P. 389.
16. Lee S.S., Kim H.S., Hwang I.K. and Yun S.H. //Electron. Lett. 2003. V.39. P. 1309.
17. Engan H.E. // IEEE Ultrasonics Symposium 2000. V.1. P. 625.
18. Diez A., Birks T.A., Reeves W.H., Mangan B.J., and Russell P.St. // J. Optics Lett. 2000. V. 25. P. 1499.
19. Aliev I.I., Rustamov P.G., Maksudova T.F.,Aliev F.G. // Zhurn. neorgan. himii.1987. T.32. № 8. S. 1991.
20. Aliev I.I., Gurshumov A.P., Aliev O.M. , Kuliev B.B. // Sbornik «Novye neorganicheskie materialy». Baku. 1992. 151 s.
21. Aliev I.I., Babanly K.N., Agamirzoeva G.M., Asadova S.Ju. // Mezhdunarodnyj nauchnoissledovatel'skij zhurnal uspehi sovremennoj nauki i obrazovanija. 2016. № 7. T. 2. S. 15-19.
22. Aliev I.I., Ismailova S. Sh., Ahmedova Dzh.A., Mehtieva S.T. Fazovoe ravnovesie i stekloobrazovanija v sisteme As2Se3-SuCr2Te4 // Evrazijskij Sojuz Uchenyh 2020. №2(71). Chast' 3. S.47-50.
23. Aliev I.I. Fiziko-himicheskie osnovy poluchenija novyh materialov v sistemah hal'kogenidov mysh'jaka s halkogenidami kadmija , indija i tallija. -Dis. na soiskanie doktora him.nauk. Baku. 1992. (INFH). 380 s.
24. Hvorestanko A.S. Hal'kogenidy mysh'jaka. Obzor iz serii "Fizicheskie i himicheskie svojstva tverdogo tela". - M., 1972.-92 s.
25. Chernov A.P. -Dis. kand. him. nauk. M.: IONH AN SSSR, 1970. 130 s.
26. Fedorov P.I., Mohosoev M.V., Alekseev F.P. Himija gallija, indija i tallija. Izd. ,,Nauka” Sibirskoe otdelenie. Novosibirsk. 1977. 222 s.
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