„The Integral Fast Reactor”. Reactors Designed by Argonne National Laboratory. Argonne National Laboratory. Архивирано из оригинала 17. 9. 2013. г. Приступљено 20. 5. 2013.CS1 одржавање: Формат датума (веза)
v. Grosse, A.; Agruss, M. (1. 3. 1935). „The Identity of Fermi's Reactions of Element 93 with Element 91”. Journal of the American Chemical Society. 57 (3): 438—439. ISSN0002-7863. doi:10.1021/ja01306a015.
Laidler, K. J. (1996). „A glossary of terms used in chemical kinetics, including reaction dynamics (IUPAC Recommendations 1996)”. Pure and Applied Chemistry. 68: 149—192. S2CID98267946. doi:10.1351/pac199668010149.
Sasahara, Akihiro; Matsumura, Tetsuo; Nicolaou, Giorgos; Papaioannou, Dimitri (април 2004). „Neutron and Gamma Ray Source Evaluation of LWR High Burn-up UO2 and MOX Spent Fuels”. Journal of Nuclear Science and Technology. 41 (4): 448—456. doi:10.3327/jnst.41.448.CS1 одржавање: Формат датума (веза)
Ashley, Stephen; Parks, Geoffrey. „Thorium fuel has risks”. Nature. 492 (7427): 31—33. PMID23222590. S2CID4414368. doi:10.1038/492031a. „We are concerned, however, that other processes, which might be conducted in smaller facilities, could be used to convert 232Th into 233U while minimizing contamination by 232U, thus posing a proliferation threat. Notably, the chemical separation of an intermediate isotope — protactinium-233 — that decays into 233U is a cause for concern... The International Atomic Energy Agency (IAEA) considers 8 kilograms of 233U to be enough to construct a nuclear weapon1. Thus, 233U poses proliferation risks.”
Sasahara, Akihiro; Matsumura, Tetsuo; Nicolaou, Giorgos; Papaioannou, Dimitri (април 2004). „Neutron and Gamma Ray Source Evaluation of LWR High Burn-up UO2 and MOX Spent Fuels”. Journal of Nuclear Science and Technology. 41 (4): 448—456. doi:10.3327/jnst.41.448.CS1 одржавање: Формат датума (веза)
Hahn, O.; Strassmann, F. (фебруар 1939). „Nachweis der Entstehung aktiver Bariumisotope aus Uran und Thorium durch Neutronenbestrahlung; Nachweis weiterer aktiver Bruchstücke bei der Uranspaltung”. Naturwissenschaften. 27 (6): 89—95. Bibcode:1939NW.....27...89H. S2CID33512939. doi:10.1007/BF01488988.CS1 одржавање: Формат датума (веза)
Hahn, O.; Strassmann, F. (фебруар 1939). „Nachweis der Entstehung aktiver Bariumisotope aus Uran und Thorium durch Neutronenbestrahlung; Nachweis weiterer aktiver Bruchstücke bei der Uranspaltung”. Naturwissenschaften. 27 (6): 89—95. Bibcode:1939NW.....27...89H. S2CID33512939. doi:10.1007/BF01488988.CS1 одржавање: Формат датума (веза)
[1]Архивирано на веб-сајту Wayback Machine (31. јул 2017) "Od rude do žutog kolača", Nuklearna elektrana Krško, 2011.
nih.gov
ncbi.nlm.nih.gov
Ashley, Stephen; Parks, Geoffrey. „Thorium fuel has risks”. Nature. 492 (7427): 31—33. PMID23222590. S2CID4414368. doi:10.1038/492031a. „We are concerned, however, that other processes, which might be conducted in smaller facilities, could be used to convert 232Th into 233U while minimizing contamination by 232U, thus posing a proliferation threat. Notably, the chemical separation of an intermediate isotope — protactinium-233 — that decays into 233U is a cause for concern... The International Atomic Energy Agency (IAEA) considers 8 kilograms of 233U to be enough to construct a nuclear weapon1. Thus, 233U poses proliferation risks.”
Sandulescu, A.; Poenaru, D. N.; Greiner, W. „New type of decay of heavy nuclei intermediate between fission and alpha-decay”. Soviet Journal of Particles and Nuclei. 11: 528—541. OSTI6189038.
Laidler, K. J. (1996). „A glossary of terms used in chemical kinetics, including reaction dynamics (IUPAC Recommendations 1996)”. Pure and Applied Chemistry. 68: 149—192. S2CID98267946. doi:10.1351/pac199668010149.
Ashley, Stephen; Parks, Geoffrey. „Thorium fuel has risks”. Nature. 492 (7427): 31—33. PMID23222590. S2CID4414368. doi:10.1038/492031a. „We are concerned, however, that other processes, which might be conducted in smaller facilities, could be used to convert 232Th into 233U while minimizing contamination by 232U, thus posing a proliferation threat. Notably, the chemical separation of an intermediate isotope — protactinium-233 — that decays into 233U is a cause for concern... The International Atomic Energy Agency (IAEA) considers 8 kilograms of 233U to be enough to construct a nuclear weapon1. Thus, 233U poses proliferation risks.”
Hahn, O.; Strassmann, F. (фебруар 1939). „Nachweis der Entstehung aktiver Bariumisotope aus Uran und Thorium durch Neutronenbestrahlung; Nachweis weiterer aktiver Bruchstücke bei der Uranspaltung”. Naturwissenschaften. 27 (6): 89—95. Bibcode:1939NW.....27...89H. S2CID33512939. doi:10.1007/BF01488988.CS1 одржавање: Формат датума (веза)
„The Integral Fast Reactor”. Reactors Designed by Argonne National Laboratory. Argonne National Laboratory. Архивирано из оригинала 17. 9. 2013. г. Приступљено 20. 5. 2013.CS1 одржавање: Формат датума (веза)
[1]Архивирано на веб-сајту Wayback Machine (31. јул 2017) "Od rude do žutog kolača", Nuklearna elektrana Krško, 2011.
wikipedia.org
en.wikipedia.org
Sandulescu, A.; Poenaru, D. N.; Greiner, W. „New type of decay of heavy nuclei intermediate between fission and alpha-decay”. Soviet Journal of Particles and Nuclei. 11: 528—541. OSTI6189038.
v. Grosse, A.; Agruss, M. (1. 3. 1935). „The Identity of Fermi's Reactions of Element 93 with Element 91”. Journal of the American Chemical Society. 57 (3): 438—439. ISSN0002-7863. doi:10.1021/ja01306a015.
Hook, Ernest B. (2002). „Interdisciplinary Dissonance and Prematurity: Ida Noddack’s Suggestion of Nuclear Fission”. Ур.: Hook, Ernest B. Prematurity in Scientific Discovery: On Resistance and Neglect. Berkeley and Los Angeles: University of California Press. стр. 124—148. ISBN978-0-520-23106-1. OCLC883986381.