Method of intensifying electron Bremsstrahlung
A method of increasing the intensity of electron Bremsstrahlung by means of multiple passage of an electron beam through a conversion target placed in a magnetic field is described. After each passage through the conversion target, the diverging beam of electrons is focused in magnets with special p...
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Veröffentlicht in: | Atomic energy (New York, N.Y.) N.Y.), 2013-11, Vol.115 (1), p.42-47 |
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creator | Bogdanovich, B. Yu Kaminsky, V. I. Kudinov, V. V. Nesterovich, A. V. Senyukov, V. A. |
description | A method of increasing the intensity of electron Bremsstrahlung by means of multiple passage of an electron beam through a conversion target placed in a magnetic field is described. After each passage through the conversion target, the diverging beam of electrons is focused in magnets with special pole pieces. To study the formation of the Bremsstrahlung flux the characteristics of the Bremsstrahlung of the 2–8 MeV electrons were calculated for aluminum, tin and tungsten targets of different thickness. This made it possible to choose the optimal target material and thickness. |
doi_str_mv | 10.1007/s10512-013-9746-3 |
format | Article |
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Yu ; Kaminsky, V. I. ; Kudinov, V. V. ; Nesterovich, A. V. ; Senyukov, V. A.</creator><creatorcontrib>Bogdanovich, B. Yu ; Kaminsky, V. I. ; Kudinov, V. V. ; Nesterovich, A. V. ; Senyukov, V. A.</creatorcontrib><description>A method of increasing the intensity of electron Bremsstrahlung by means of multiple passage of an electron beam through a conversion target placed in a magnetic field is described. After each passage through the conversion target, the diverging beam of electrons is focused in magnets with special pole pieces. To study the formation of the Bremsstrahlung flux the characteristics of the Bremsstrahlung of the 2–8 MeV electrons were calculated for aluminum, tin and tungsten targets of different thickness. 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subjects | Aluminum Analysis Atomic physics Copper Electrons Energy Hadrons Heavy Ions Magnetic fields Methods Nuclear Chemistry Nuclear Energy Nuclear Physics Nuclear radiation Physics Physics and Astronomy R&D Radiation Research & development Studies Tungsten |
title | Method of intensifying electron Bremsstrahlung |
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