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Dive into the research topics where V. M. Zhivun is active.

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Featured researches published by V. M. Zhivun.


Physical Review C | 2002

Cross-sections for nuclide production in 1-GeV proton-irradiated Pb-208

Yu. E. Titarenko; S.V. Kvasova; V. F. Batyaev; R. D. Mulambetov; D.V. Fischenko; M. Saito; A. B. Koldobsky; H. Yasuda; T. A. Gabriel; O.V. Shvedov; E.I. Karpikhin; S. G. Mashnik; V. M. Zhivun; R. E. Prael; A.N. Sosnin; A.J. Sierk

114 cross sections for nuclide production in a 1.0 GeV proton-irradiated thin 208Pb target have been measured by the direct gamma spectrometry method using a high-resolution Ge detector. The gamma spectra were processed by the GENIE-2000 code. The ITEP-developed SIGMA code was used together with the PCNUDAT nuclear decay database to identify the gamma lines and to determine the cross sections. The 27Al(p,x)22Na reaction was used to monitor the proton flux. Results of a feasibility study of the auxiliary 27Al(p,x)24Na and 27Al(p,x)7Be monitor reactions in the 0.07-2.6 GeV proton-energy range are presented as well. Most of the experimental data have been analyzed by the LAHET (with ISABEL and Bertini options), CEM95, CEM2k, INUCL, CASCADE, CASCADE/INPE, and YIELDX codes that simulate hadron-nucleus interactions.


Physics of Atomic Nuclei | 2011

Measurement and simulation of the cross sections for nuclide production in natW and 181Ta targets irradiated with 0.04- to 2.6-GeV protons

Yu. E. Titarenko; V. F. Batyaev; A. Yu. Titarenko; M. A. Butko; K. V. Pavlov; S. N. Florya; R. S. Tikhonov; V. M. Zhivun; A. V. Ignatyuk; S. G. Mashnik; S. Leray; A. Boudard; Joseph Cugnon; Davide Mancusi; Y. Yariv; K. Nishihara; N. Matsuda; H. Kumawat; G. Mank; Waclaw Gudowski

The cross sections for nuclide production in thin natWand 181Ta targets irradiated by 0.04–2.6-GeV protons have been measured by direct γ spectrometry using two γ spectrometers with the resolutions of 1.8 and 1.7 keV in the 60Co 1332-keV γ line. As a result, 1895 yields of radioactive residual product nuclei have been obtained. The 27Al(p, x)22Na reaction has been used as a monitor reaction. The experimental data have been compared with the MCNPX (BERTINI, ISABEL), CEM03.02, INCL4.2, INCL4.5, PHITS, and CASCADE07 calculations.


Physics of Atomic Nuclei | 2011

Measurement and simulation of the cross sections for nuclide production in 93Nb and natNi targets irradiated with 0.04- to 2.6-GeV protons

Yu. E. Titarenko; V. F. Batyaev; A. Yu. Titarenko; M. A. Butko; K. V. Pavlov; S. N. Florya; R. S. Tikhonov; V. M. Zhivun; A. V. Ignatyuk; S. G. Mashnik; S. Leray; A. Boudard; Joseph Cugnon; Davide Mancusi; Y. Yariv; K. Nishihara; N. Matsuda; H. Kumawat; G. Mank; Waclaw Gudowski

The cross sections for nuclide production in thin 93Nb and natNi targets irradiated by 0.04- to 2.6-GeV protons have been measured by direct γ spectrometry using two γ spectrometers with the resolutions of 1.8 and 1.7 keV in the 60Co 1332-keV γ line. As a result, 1112 yields of radioactive residual nuclei have been obtained. The 27Al(p, x)22Na reaction has been used as a monitor reaction. The experimental data have been compared with the MCNPX (BERTINI, ISABEL), CEM03.02, INCL4.2, INCL4.5, PHITS, and CASCADE07 calculations.


Physical Review C | 2011

Verification of high-energy transport codes on the basis of activation data

Yu. E. Titarenko; V. F. Batyaev; M. A. Butko; D. V. Dikarev; S. N. Florya; K. V. Pavlov; A. Yu. Titarenko; R. S. Tikhonov; V. M. Zhivun; A. V. Ignatyuk; S. G. Mashnik; A. Boudard; S. Leray; J-C David; Joseph Cugnon; Davide Mancusi; Y. Yariv; H. Kumawat; K. Nishihara; N. Matsuda; G. Mank; Waclaw Gudowski

High-energy transport codes (HETCs) based on various versions of nuclear reaction models [generally, an intranuclear cascade model (INC) followed by different deexcitation models] are widely used in many nuclear centers for the analysis of experimental data, for calculations of nuclear accelerator shielding, and for design of new nuclear facilities. Each of the available codes was developed originally for well-specified tasks and the model parameters were estimated on the basis of fitting the corresponding data. With an expansion of tasks,


Physics of Atomic Nuclei | 2011

Measurement and simulation of the cross sections for nuclide production in 56Fe and natCr targets irradiated with 0.04- to 2.6-GeV protons

Yu. E. Titarenko; V. F. Batyaev; A. Yu. Titarenko; M. A. Butko; K. V. Pavlov; S. N. Florya; R. S. Tikhonov; V. M. Zhivun; A. V. Ignatyuk; S. G. Mashnik; S. Leray; A. Boudard; Joseph Cugnon; Davide Mancusi; Y. Yariv; K. Nishihara; N. Matsuda; H. Kumawat; G. Mank; Waclaw Gudowski

The cross sections for nuclide production in thin 56Fe and natCr targets irradiated by 0.04–2.6-GeV protons are measured by direct γ spectrometry using two γ spectrometers with the resolutions of 1.8 and 1.7 keV for the 60Co 1332-keV γ line. As a result, 649 yields of radioactive residual product nuclei have been obtained. The 27Al(p, x)22Na reaction has been used as a monitor reaction. The experimental data are compared with the MCNPX (BERTINI, ISABEL), CEM03.02, INCL4.2, INCL4.5, PHITS, and CASCADE07 calculations.


Physics of Atomic Nuclei | 2005

Double-differential cross sections for the production of neutrons from Pb, W, Zr, Cu, and Al targets irradiated with 0.8-, 1.0-, and 1.6-GeV protons

Yu. V. Trebukhovsky; Yu. E. Titarenko; V. F. Batyaev; R. D. Mulambetov; S. V. Mulambetova; G. N. Smirnov; K. A. Lipatov; A. B. Koldobsky; V. M. Zhivun; V.S. Barashenkov; H. Kumawat; S. G. Mashnik; R. E. Prael

Experimental results obtained by determining the double-differential cross sections for neutron production in Pb, W, Zr, Cu, and Al targets irradiated with 0.8-, 1.0-, and 1.6-GeV protons are presented. The spectra of neutrons were measured at 15°, 30°, 60°, 90°, 120°, and 150° with a time-of-flight spectrometer by using a proton beam extracted from the 10-GeV synchrotron at the Institute of Theoretical and Experimental Physics (ITEP, Moscow). The neutrons are recorded with 5MAB-1F6BC501A/5L liquid scintillation detectors and NE110 solid-state scintillators. The experimental data in question are compared with the results of simulations based on the CEM97, LAHET, and CASCADE codes.


Physics of Atomic Nuclei | 2011

Measurement and simulation of the cross sections for the production of 148Gd in thin natW and 181Ta targets irradiated with 0.4- to 2.6-GeV protons

Yu. E. Titarenko; V. F. Batyaev; A. Yu. Titarenko; M. A. Butko; K. V. Pavlov; S. N. Florya; R. S. Tikhonov; V. M. Zhivun; A. V. Ignatyuk; S. G. Mashnik; S. Leray; A. Boudard; Joseph Cugnon; Davide Mancusi; Y. Yariv; K. Nishihara; N. Matsuda; H. Kumawat; G. Mank; Waclaw Gudowski

The cross sections for the production of 148Gd in natW and 181Ta targets irradiated by 0.4-, 0.6-, 0.8-, 1.2-, 1.6-, and 2.6-GeV protons at the ITEP accelerator complex have been measured by direct α spectrometry without chemical separation. The experimental data have been compared with the data obtained at other laboratories and with the theoretical simulations of the yields on the basis of the BERTINI, ISABEL, CEM03.02, INCL4.2, INCL4.5, CASCADE07, and PHITS codes.


Laser and Particle Beams | 2002

Induced radioactivity problem for high-power heavy ion accelerators: Experimental investigation and long-time predictions

A. D. Fertman; V. F. Batyaev; N. Borisenko; A. Cherkasov; A. Golubev; A. Kantsyrev; E.I. Karpikhin; A. B. Koldobsky; K. A. Lipatov; R. D. Mulambetov; S. V. Mulambetova; Yu. V. Nekrasov; M. Prokouronov; I. Roudskoy; B. Sharkov; G. N. Smirnov; Yu. Titarenko; V. Turtikov; V. M. Zhivun; G. Fehrenbacher; R. W. Hasse; D. H. H. Hoffmann; I. Hofmann; E. Mustafin; K. Weyrich; J. Wieser; S. G. Mashnik; V.S. Barashenkov; K. K. Gudima

The experimental results of the activation spectra, dose rate measurements, and the residual nuclide production cross sections obtained after the irradiation of the Nat Cu and 59 Co targets by 12 C ion beams at ITEP and GSI are presented in this paper. These results are compared with simulations by the CASCADE and LAQGSM codes.


Physics of Atomic Nuclei | 2011

Cross sections for monitor reactions 27Al((p, x)24Na, 27Al(p, x)22Na, and 27Al(p, x)7Be at proton energies in the range 0.04–2.6 GeV

Yu. E. Titarenko; S. P. Borovlev; M. A. Butko; V. M. Zhivun; K. V. Pavlov; V. I. Rogov; A. Yu. Titarenko; R. S. Tikhonov; S. N. Florya; A. B. Koldobskiy

The cross sections for the monitor reactions 27Al(p, x)24Na, 27Al(p, x)22Na, and 27Al(p, x)7Be at 12 proton energies, 2605, 1598, 1199, 799, 600, 400, 249, 147.6, 97.2, 66.0, 44.6, and 40.8 MeV, have been determined with 72 × 72-mm square and 10.5-mm-diameter round aluminum foils. The rates of the reactions of the production of 24Na, 22Na, and 7Be in the foils in each irradiation run have been determined by γ spectrometry, whereas the number of protons transmitted through these foils has been determined using calibrated fast current transformers. The cross sections have been determined as the ratios of the corresponding reaction to the average proton fluence.


Journal of Nuclear Science and Technology | 2002

Experimental and Theoretical Study of the Residual Product Nuclide Yields in 100-2600 MeV Proton-Irradiated Thin Targets

Yury E. Titarenko; V. F. Batyaev; Evgeny I. Karpikhin; Aleksander B. Koldobsky; V. M. Zhivun; Ruslan D. Mulambetov; Svetlana V. Kvasova; V.S. Barashenkov; S. G. Mashnik; R. E. Prael; Arnold J. Sierk; Hideshi Yasuda; Masaki Saito

The work is aimed at experimental determining and computer simulating the independent and cumulative yields of residual product nuclei in the target and structure materials of the transmutation facilities driven by high-current accelerators. The ITEP U-10 accelerator was used in 48 experiments to obtain more than 4000 values of the yields of radioactive residual product nuclei in 0.1-2.6 GeV proton-irradiated thin 182, 183, 184, 186W, natW, 56Fe, 58Ni, 93Nb, 232Th, 232Th, natU, 99Tc, 59Co, 63, 65Cu, natHg, 208Pb, and 27Al targets. The results of verifying the LAHET, CEM95, CEM2k, CASCADE, CASCADE/INPE, YIELDX, HETC, INUCL, and other simulation codes are presented.

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S. G. Mashnik

Los Alamos National Laboratory

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V. F. Batyaev

Los Alamos National Laboratory

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R. E. Prael

Los Alamos National Laboratory

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K. A. Lipatov

Los Alamos National Laboratory

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R. D. Mulambetov

Los Alamos National Laboratory

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K. Nishihara

Japan Atomic Energy Agency

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Y. Yariv

Weizmann Institute of Science

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