Keywords
cassette method
chalcogenides
convection
directional crystallization
heat exchange
heat radiation
mathematical modeling
melt
thermoelectric
Abstract
A new, relatively simple and highly efficient modification of the directional melt crystallization method in the form of a multi-cassette process has been considered. This study is based on Russian Patents and technological studies conducted at National Research and Technological University MISiS.
References
1.
Winkler M., Liu X., König J.D., Buller S., Schürmann U., Kienle L., Bensch W., Böttner H.
Journal of Materials Chemistry A,
2012
2.
Gusev A.I. Nanomaterialy, nanostruktury, nanotekhnologii [Nanomaterials, nanostructures, nanotechnologies]. Moscow: Nauka-Fizmatlit, 2007, 416 p. (In Russ.)
3.
Zhang Z., Sharma P.A., Lavernia E.J., Yang N.
Journal of Materials Research,
2011
4.
Scheele M., Oeschler N., Meier K., Kornowski A., Klinke C., Weller H.
Advanced Functional Materials,
2009
5.
Zakeri M., Allahkarami M., Kavei G., Khanmohammadian A., Rahimipour M.R.
Journal of Materials Processing Technology,
2009
6.
Jae-Taek Im. Grain refinement and texture development of cast BiSb alloy via severe plastic deformation. Diss. Yeung-nam University (Korea), 2007, 113 p.
7.
Pat. 2160484 (RF). Litaya plastina, izgotovlennaya iz termoelektricheskogo materiala [Cast plate made of thermoelectric material]. Yu.M. Belov, N. Mayekava, 2000. (In Russ.)
8.
Pat. 2181516 (RF). Poluprovodnikovoye dlinnomernoye izdeliye dlya termoelektricheskikh ustroystv [Semiconductor lengthy product for thermoelectric devices]. Yu.M. Belov, M.P. Volkov, S.M. Manyakin, 2002. (In Russ.)
9.
Pat. 2402111 (RF). Kristallicheskaya plastina, pryamougol’nyy brusok, komponent dlya proizvodstva termoelektricheskikh moduley i sposob polucheniya kristallicheskoy plastiny [Crystal plate, rectangular block, component for the production of thermoelectric modules and a method for producing a crystal plate]. Yu.M. Belov, V.F. Ponomarev, A.V. Telyshev, D.G. Ryabinin, 2010. (In Russ.)
10.
Demcheglo V.D., Voronin A.I., Tabachkova N.Y., Bublik V.T., Ponomaryov V.F.
Semiconductors,
2017
11.
Bogomolov D.I., Bublik V.T., Verezub N.A., Prostomolotov A.I., Tabachkova N.Y.
Russian Microelectronics,
2018
12.
13.
Ganina S.M., Ginkin V.P., Budenkova O.N., Saadi B., Ashani L., Fotrel I. Modeling of crystallization of binary melts using examples of numerical and experimental benchmarks. Voprosy atomnoi nauki i tekhniki. Cer. Matematicheskoe modelirovanie fizicheskikh protsessov. 2012; (3): 45–56. (In Russ.)
14.
Ahmad N., Rappaz J., Desbiolles J.-., Jalanti T., Rappaz M., Combeau H., Lesoult G., Stomp C.
Metallurgical and Materials Transactions A: Physical Metallurgy and Materials Science,
1998
16.
Magomedov Ya.B., Gadzhiev G.G., Omarov Z.M. Temperature dependence of the thermal conductivity and electrical conductivity of Bi2Te3 and its melt. Fazovye perekhody, uporyadochennye sostoyaniya i novye materially. 2013; (9): 1–5. (In Russ.)
17.
Glazov V.M. Zhidkiye poluprovodniki [Liquid semiconductors]. Moscow: Nauka, 1967, 246 p. (In Russ.)
18.
Pashinkin A.S., Mikhailova M.S. Analysis of thermodynamic functions of solid bismuth telluride. Proceedings of Universities. Electronics. 2015; 20(2): 198–200. (In Russ.)
19.
Caillat T., Carle M., Perrin D., Scherrer H., Scherrer S.
Journal of Physics and Chemistry of Solids,
1992
20.
Voronin A.I., Novitskii A.P., Ashim Y.Z., Inerbaev T.M., Tabachkova N.Y., Bublik V.T., Khovaylo V.V.
Journal of Electronic Materials,
2019