Beryllium Materials and Their Application in Energetics of Future

Abstract

Beryllium materials are widely used in science and technology. They are of importance both for nuclear and thermonuclear energy applications. Additionally, metallic beryllium is transparent to x-ray radiation and used in the manufacture of X-ray windows and refractive x-ray lenses. SC “VNIINM” has developed beryllium materials
for various purposes: for coating of the ITER’s first wall, for focusing and controlling X-ray radiation. Porous beryllium is of particular interest as it is an upcoming trend as a temper and neutron multiplier in blankets of thermonuclear facilities. A unique combination of X-ray optical properties also makes it possible to use porous beryllium in imaging devices in a synchrotron radiation beam (speckle suppressor).


Keywords: beryllium composite, porosity, beryllium-foam, ITER, X-ray optics

References
[1] A.A. Semenov. Beryllium Technology at Bochvar All-Russia Research Institute for Inorganic Materials: Past, Present, Future. Atomic energy. 2015. vol. 119. No.5. Pp. 255-259.


[2] Yu.E. Markushkin, M.I. Solonin, V.V. Gorlevsky, V.A. Gorokhov, D.A.,Davydov, G.N. Nikolaev. Method for the production of porous beryllium goods. Patent RF, No 2106931. 1998


[3] Ed. by Hilyard N.C. Mechanics of Cellular Plastics. London, Applied Science Publishers LTD, 1982.


[4] A.A. Berlin, F.A. Shutov. Polymeric foams based on reactive oligomers. Moscow. Khimiya Publ. 1978. 296 p. (In Russian).


[5] V.V. Gorlevsky, A.S. Vorontsov, A. V. Zabrodin, Yu.E. Markushkin, et al. Structure and properties of high-porous (foamed) nanoberyllium.Selectas of VNIINM, Jubilee collection dedicated to the 100th anniversary of Russian largest scientist and metal expert Academician Andrei Anatolyevich Bochvar. Vol. 2. Мoscow. VNIINM Publ.2002, Pp 89-99 (In Russian).


[6] V.V. Gorlevsky, N.E. Zabirova, Yu.E. Markushkin, V.S. Mikhailov,V.G. Starshina, A.M. Khomutov, M.S. Sheverdyaev. Porous beryllium – advanced material for the tritium-breeding blanket of a thermonuclear reactor. Proc. 6th All-Russia conf.“Physicochemistry of ultrafine (nano) systems”. Tomsk, 2002. (In Russian).


[7] D.A. Davydov, М.I. Solonin, Yu.E. Markuchkin, V.A. Gorokhov, V.V. Gorlevsky, G.N. Nikolaev. Development of materials and fabrication of porous pebble bed beryllium multipliers. J. of Nucl. Mat. 2000, Vol. 283-287, Pр. 1409-1413.


[8] F.F.Kostylev, V.V. Gorlevsky, M.D. Senin et al. Preparation and properties of highporous beryllium with microcellular structure. USSR Chemical Bulletin. 1995. Vol 31, No 4, Pp. 479-482. (In Russian).


[9] V.V. Gorlevsky, Yu.E. Markushkin, V.F. Petrunin. Highly porous beryllium. J. Moscow Phys. Soc. 1998, No 8, Pp. 373-376.


[10] V.V. Gorlevsky, Yu.E. Markuchkin, V.F.Petrunin. Ultradispersed (nanostructured) beryllium. Proceeding of the twelfth target fabrication specialist meeting. Jackson Hole. Wyoming, US. April 19-23. 1998. Pp. 209-214.


[11] A.S. Vorontsov, V.V. Gorlevsky et al. High-porous structural materials based on nanoberyllium and aluminum. Advanced materials. 2001. No 6. Pp. 51-54. (In Russian).


[12] State standard 18898-89. Powder products. Methods for determination of density, oil content and porosity. Moscow, Standards Publ 1990, 12 p (In Russian).


[13] A. Goikhman, I. Lyatun, P. Ershov et al. Highly porous nanoberyllium for Xray beam speckle suppression. J. Synchrotron Rad. 2015. Vol. 22. Pp. 796-800. doi.org/10.1107/S1600577515003628


[14] A. A. Semenov A. V. Zabrodin, V. V. Gorlevskiy et al. The experience in production of composite refraction lenses from beryllium. Crystallography Reports. 2017. Vol. 62. No. 1. Pp. 25–30. doi:10.1134/S1063774517010217