[1]
V.N. Lozovsky, L.S. Lunin, V.P. Popov, Temperature-gradient zone recrystallization of semiconductor materials, Metallurgy, Moscow, (1987).
Google Scholar
[2]
L.S. Lunin, A.V. Blagin, D.L. Alfimova, A.I. Popov, P.I. Razumovskij, Physics gradient epitaxy of semiconductor heterostructures, SKNC VSh, Rostov-na-Donu, (2008).
Google Scholar
[3]
A.A. Barannik, L.V. Blagina, O.E. Draka, D.G. Podshhipkov, Physico-chemical principles of the multicomponent semiconductors with a given substructure, SKNC VSh, Rostov-na-Donu, (2009).
Google Scholar
[4]
V.N. Lozovskiy, B.M. Seredin, The physical aspects of the choice of thermomigration as a method local doping of crystals, Fundamental research, 3 (2015) 111-118.
Google Scholar
[5]
A.S. Polukhin, A.V. Baljuk, L.M. Seredin, B.M. Seredin, Patterns with separated p+-regions for semiconductor power devices at currents up to 100 A, Crystallization and properties of crystals. Interuniversity collection of scientific works South-Russian State Polytechnic University (NPI), Nabla, Novocherkassk, (2003).
Google Scholar
[6]
A.S. Polukhin, T.K. Zueva, A.I. Solodovnik, The use of thermomigration in technology structures of power semiconductor devices, Power electronics, 3 (2006) 110-112.
Google Scholar
[7]
A.S. Polukhin, Thermomigration undirected linear zones in silicon wafers (100) to manufacture chips of power semiconductor devices, Components and technologies, 11 (2008) 97-100.
Google Scholar
[8]
A.S. Poluhin, Analysis of the technological factors of the thermomigration process, Power electronics. 5 (2013) 118-120.
Google Scholar
[9]
B. Morillon, Etude de la thermomigration de l'aluminium dans le silicium pour la réalisation industrielle de murs d'isolation dans les composants de puissance bidirectionnels. Micro and nanotechnologies Microelectronics. INSA de Toulouse, (2002).
DOI: 10.18356/60534db8-fr
Google Scholar
[10]
B. Morillon, J. -M. Dilhac, C. Ganibal, C. Anceau, Study of aluminum thermomigration as a low thermal budget technique for innovative power devices, Microelectronics Reliability, 43(4) (2003) 565-569.
DOI: 10.1016/s0026-2714(03)00025-8
Google Scholar
[11]
B. Lu, G. Gautier, D. Valente, B. Morillon, D. Alquier, Etching optimization of post aluminum-silicon thermomigration process residues, Microelectronic Engineering. 149 (2016) 97-105.
DOI: 10.1016/j.mee.2015.10.004
Google Scholar
[12]
V.N. Lozovsky, L.S. Lunin, B.M. Seredin, Features of power silicon devices by thermomigration, Electronic Engineering. Series 2. Semiconductor Devices. 2-3 (2015) 105-115.
Google Scholar
[13]
V.N. Lozovsky, B.M. Seredin, A.S. Polukhin, A.I. Solodovnik, Equipment for obtaining silicon structures by thermomigration, Electronic equipment. Series 2. Semiconductor Devices, 5 (2015) 65-76.
Google Scholar
[14]
ISO 25178-2-2014, Geometrical product specifications. Surface texture. Part 2: Terms, definitions, and surface texture parameters.
DOI: 10.3403/30397790
Google Scholar
[15]
K. Pearce, A. Adams, L. Katz, J. Tsai, T. Seidel, D. McGills, VLSIC Technology In 2 books, Book 1. Translated from English, Mir, Moscow, (1986).
Google Scholar
[16]
B.D. Summ, Yu.V. Goryunov, Physicochemical bases of wetting and spilling, Chemistry, Moscow, (1976).
Google Scholar
[17]
B.M. Seredin, Study of kinetics of thermomigration during adding of Ga additives into the zone-forming material Si - Al, Izv. vuzov, Sev. -Kavk. region. Tech. nauki. 3 (2014) 103-109.
Google Scholar
[18]
State diagrams of binary metal systems, Engineering Publ., Moscow, (1996).
Google Scholar
[19]
V.N. Lozovskij, L.S. Lunin, B.M. Seredin, O. Devitsky, Cristal properties of silicon obtained by termomigratio, Newsletter of Nort-Caucasus federal university, 3(54) (2016) 24-30.
Google Scholar
[20]
V.N. Lozovskij, L.S. Lunin, B.M. Seredin, I. Sysoev, Inducet instability in interphase boundaries thermomigration, Newsletter of Nort-Caucasus federal university, 2(53) (2016) 25-30.
Google Scholar