1Bilous, VА, 1Voyevodin, VМ, 1Strelnitskij, VYe., 1Didenko, SYu., 1Rybka, ОV, 1Mazilov, ОV, 1Vasyl’ev, VV, 1Luchaninov, ОА, 1Reshetnyak, ОМ, 1Ilchenko, МІ, 1Kutnij, VYe., 1Vyeryovkin, АА, 1Shpagina, LО, 1Borysenko, VМ, 2Pshenichniy, DG, 3Plisak, Yu.V, 3Kuznetsov, AP
1Kharkiv Institute for Physics and Technology of NASU, National Research Center, Kharkiv
2Grace Engineering, R&P Corporation, Sumy
3Dniprotechservice, R&P Corporation, Dnipropetrovsk
Sci. innov. 2014, 10(4):5-19
https://doi.org/10.15407/scine10.04.005
Section: Research and Technical Innovative Projects of the National Academy of Sciences of Ukraine
Language: English
Abstract: 

An experimental technological complex has been created. It consists of the sections for coating with diamond-like nanostructured composites; for manufacturing the radio-protective and other types of laminated metal composites; and for testing the radio-protective characteristics of materials. The technological equipment and the tester of radio-protective properties have been upgraded. On the basis of the developed experimental methods the batch of diamond-like coated ring seals of large diameter and samples of Al-Pb laminated composites have been made. The radio-protective effectiveness of composites has been experimentally established to be 30—40 % higher than that of aluminum.

Keywords: accelerator and radioisotope techniques, diamond-like coating, laminated composites, vacuum-arc and vacuum rolling methods
References: 

1. Strelnitskii, V.E. and Aksenov, I.I. (2006). Films of Diamond-Like Carbon. Kharkiv: IPP Contrast (in Russian).
2. Aksenov, I.I., Andreev, A.A., Belous, V.A. et. al. (2012). Vacuum Arc: Plasma Sources, Deposition of Coatings, Surface Modification. Kyiv: Naukova Dumka (in Rus sian).
3. Aksenov, D.S., Aksenov, I.I., and Strelnitskii, V.E.: Suppres sion of Emission of Macro-particles in Vacuum Arc Plasma Sources. Problems of Atomic Science and Technology. Physics of Radiactive Damages and Radiactive Materials Science, 6, 106—115 (2007) (in Russian).
4. Vasiliev, V.V. and Strelnitskii, V.E.: Method for Transport of Vacuum Arc Cathode Plasma with Filtration from Micro-particles and Device for Its Realization. Patent of Ukraine no. 97584. Bulletin, 4 (2012) (in Ukrainian).
5. Vasiliev, V.V. and Strelnitskii, V.E.: Anode Node of Vacuum arc Source of Cathode Plasma. Patent of Ukraine no. 101443. Bulletin, 6 (2013) (in Ukrainian).
6. Vasiliev, V.V. and Strelnitskii, V.E.: Vacuum Arc Evaporator for Generation of Cathode Plasma. Patent of Ukraine no. 101678. Bulletin, 8 (2013) (in Ukrainian).
7. 50 Years of Kharkiv Institute for Physics and Technology of AS of USSR. Kyiv: Naukova Dumka (1978) (in Russian).
8. Krupin, A.V., Linetskii, B.L., Zarapin, Yu.A. et.al. (1972). Vacuum Rolling Mills. Moscow: Machine-Building (in Russian).
9. Ivanov, V.E. and Kovtun, S.F.: Vacuum Rolling of Chemically Active Metals. Nonferrous Metals, 11,. 15—17 (1962) (in Russian).
10. Krupin, A.V. (1974). Metal Rolling in Vacuum. Moscow: Metallurgy (in Russian).
11. Nekliudov, I.M., Didenko, S.Yu., Ilchenko, N.I. et. al.: Creation of Laminated Composites by Hot Rolling in Vacuum. Works of Research and Practical Symposium «Equipment and Technologies, Heat Treatment of Metals in Machine-Building», 75—80 (2000) (in Russian).
12. Ilchenko, N.I., Didenko, S.Yu., Nekliudov, I.M., et. al.: Obtaining Laminated Materials and Composites of Copper-Steel Type by Hot Rolling in Vacuum and Studying Their Properties. Problems of Atomic Science and Technology, 3, 158—160 (2003) (in Russian).
13. Voevodin, V.N., Didenko, S.Yu., Ilchenko, N.I., et. al.: Ther mo-activated Evolution of Structural Phase Condition of Transition Zones in Bimetals St3-12X18 H10T. Problems of Atomic Science and Technology, 2, 164—168 (2008) (in Russian).
14. Nekliudov, I.M., Voevodin, V.N., Didenko, S.Yu., et. al.: Pros pects for Production and Use of Metallic Microlaminates Obtained by Vacuum Rolling. Problems of Atomic Science and Technology, 5, 89—94 (2010) (in Russian).
15. Voevodin, V.N., Didenko, S.Yu., Ilchenko, N.I., et. al.: Mechanical Properties and Structure of Copper-Steel Microlaminates. Problems of Atomic Science and Technology, 5, 95-101 (2010) (in Russian).
16. Kudriashov, Yu.B. (2004). Radiation Biophysics (Ionizing Radiation). Moscow: Fizmatlit (in Russian).
17. Korshunov, F.P., Bogatyrev, Yu.V., and Vavilov V.A. (1996). Influence of Radiation on IC Chips. Minsk: Nauka i Tekhnika (in Russian).
18. Aleshin, V.S. and Sarkisov, A.A. (1961). Energy Nuclear Reactors. Leningrad: Sudpromgiz (in Russian).
19. Mashkovich, V.P. (1982). Protection from Ionizing Radiation. Moscow: Energoatomizdat (in Russian).
20. Belous, V.A., Komarov, A.O., and Shiliaev, B.A.: Thin-Film Laminated Screens to Protect from X-rays and Gamma Radiation. Problems of Atomic Science and Technology. Vacuum, Pure Materials, and Semiconductors, 1, 202—204 (2008) (in Russian).
21. Borts, B.V., Marchenko, I.G., and Bezdvernyi, P.N.: Modeling of Electron Passage through Laminated Composite. Problems of Atomic Science and Technology. Physics of Radiactive Damages and Radioactive Materials Science, 4, 2, 175—177 (2009) (in Russian).
22. Gauzner, S.I., Kivilis, S.S., and Osokina, A.P. (1972). Measurement of Mass, Volume, and Density. Moscow: Standard Publication (in Russian).
23. LBNL Isotopes Project — LUNDS Universitet. http://ie.lbl.gov/toi/index.asp