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N. V. Gorin, Y. Z. Kandiev, M. O. Sadykova (2000)
Compuational-experimental investigation of the temperature field in IGR masonryAt. Énerg., 88
N. V. Gorin, Y. Z. Kandiev, V. I. Litvin (2000)
Computational-experimental investigation of the IGR neutron spectrum characteristicsAt. Énerg., 89
A. Karpenko, Yu. Blinov, V. Golovin, A. Tuchkov (2000)
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Characteristics of the thermal-neutron field in the experimental channel of IGRAt. Énerg., 90
I. V. Kurchatov, S. M. Feinberg, N. A. Dollezhal' (1964)
IGR pulsed graphite reactorAt. Énerg., 17
M. A. Arnautova, Y. Z. Kandiev, B. E. Lukhminsky, G. N. Malishkin (1993)
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N. Gorin, Y. Kandiev, V. Litvin, V. Gaidaichuk, Yu. Kaz'min, V. Pakhnits, A. Skivka, A. Vasil’ev, V. Pavshuk, A. Rychev (2000)
Computational-Experimental Investigation of the Special Features of the Neutron Spectrum of an IGR ReactorAtomic Energy, 89
N. Gorin, Y. Kandiev, M. Sadykova, N. Sadykov, L. Shibarshov, D. Shmakov, A. Shcherbina, V. Gaidaichuk, Yu. Kaz'min, V. Pakhnits, A. Skivka, A. Vasil’ev, V. Pavshuk (2000)
A computational-experimental investigation of the temperature field of IGR masonryAtomic Energy, 88
It is shown computationally that the IGR neutron lifetime depends on the neutron creation location in the core and that the absorbing material of the control rods strongly affects its value. It is shown that the neutron lifetime at the bottom of the core can be approximately 30% longer than at core center. The influence of the reflector, the water tank, and the temperature on the neutron lifetime is investigated.
Atomic Energy – Springer Journals
Published: Oct 2, 2004
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