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Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study

The experiment was performed in support of a Japanese initiative to investigate the biological effects of irradiation from residual neutron-activated radioactivity that resulted from the A-bombing. Radionuclide (56)Mn (T(1/2) = 2.58 h) is one of the main neutron-activated emitters during the first h...

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Autores principales: Stepanenko, Valeriy, Kaprin, Andrey, Ivanov, Sergey, Shegay, Peter, Zhumadilov, Kassym, Petukhov, Aleksey, Kolyzhenkov, Timofey, Bogacheva, Viktoria, Zharova, Elena, Iaskova, Elena, Chaizhunusova, Nailya, Shabdarbayeva, Dariya, Amantayeva, Gaukhar, Baurzhan, Arailym, Ruslanova, Bakhyt, Abishev, Zhaslan, Apbassova, Madina, Kairkhanova, Ynkar, Uzbekov, Darkhan, Khismetova, Zaituna, Zhunussov, Yersin, Fujimoto, Nariaki, Sato, Hitoshi, Shichijo, Kazuko, Nakashima, Masahiro, Sakaguchi, Aya, Toyoda, Shin, Kawano, Noriyuki, Ohtaki, Megu, Otani, Keiko, Endo, Satoru, Yamamoto, Masayoshi, Hoshi, Masaharu
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Springer Berlin Heidelberg 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7544755/
https://www.ncbi.nlm.nih.gov/pubmed/32989569
http://dx.doi.org/10.1007/s00411-020-00870-x
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author Stepanenko, Valeriy
Kaprin, Andrey
Ivanov, Sergey
Shegay, Peter
Zhumadilov, Kassym
Petukhov, Aleksey
Kolyzhenkov, Timofey
Bogacheva, Viktoria
Zharova, Elena
Iaskova, Elena
Chaizhunusova, Nailya
Shabdarbayeva, Dariya
Amantayeva, Gaukhar
Baurzhan, Arailym
Ruslanova, Bakhyt
Abishev, Zhaslan
Apbassova, Madina
Kairkhanova, Ynkar
Uzbekov, Darkhan
Khismetova, Zaituna
Zhunussov, Yersin
Fujimoto, Nariaki
Sato, Hitoshi
Shichijo, Kazuko
Nakashima, Masahiro
Sakaguchi, Aya
Toyoda, Shin
Kawano, Noriyuki
Ohtaki, Megu
Otani, Keiko
Endo, Satoru
Yamamoto, Masayoshi
Hoshi, Masaharu
author_facet Stepanenko, Valeriy
Kaprin, Andrey
Ivanov, Sergey
Shegay, Peter
Zhumadilov, Kassym
Petukhov, Aleksey
Kolyzhenkov, Timofey
Bogacheva, Viktoria
Zharova, Elena
Iaskova, Elena
Chaizhunusova, Nailya
Shabdarbayeva, Dariya
Amantayeva, Gaukhar
Baurzhan, Arailym
Ruslanova, Bakhyt
Abishev, Zhaslan
Apbassova, Madina
Kairkhanova, Ynkar
Uzbekov, Darkhan
Khismetova, Zaituna
Zhunussov, Yersin
Fujimoto, Nariaki
Sato, Hitoshi
Shichijo, Kazuko
Nakashima, Masahiro
Sakaguchi, Aya
Toyoda, Shin
Kawano, Noriyuki
Ohtaki, Megu
Otani, Keiko
Endo, Satoru
Yamamoto, Masayoshi
Hoshi, Masaharu
author_sort Stepanenko, Valeriy
collection PubMed
description The experiment was performed in support of a Japanese initiative to investigate the biological effects of irradiation from residual neutron-activated radioactivity that resulted from the A-bombing. Radionuclide (56)Mn (T(1/2) = 2.58 h) is one of the main neutron-activated emitters during the first hours after neutron activation of soil dust particles. In our previous studies (2016–2017) related to irradiation of male Wistar rats after dispersion of (56)MnO(2) powder, the internal doses in rats were found to be very inhomogeneous: distribution of doses among different organs ranged from 1.3 Gy in small intestine to less than 0.0015 Gy in some of the other organs. Internal doses in the lungs ranged from 0.03 to 0.1 Gy. The essential pathological changes were found in lung tissue of rats despite a low level of irradiation. In the present study, the dosimetry investigations were extended: internal doses in experimental mice and rats were estimated for various activity levels of dispersed neutron-activated (56)MnO(2) powder. The following findings were noted: (a) internal radiation doses in mice were several times higher in comparison with rats under similar conditions of exposure to (56)MnO(2) powder. (b) When 2.74 × 10(8) Bq of (56)MnO(2) powder was dispersed over mice, doses of internal irradiation ranged from 0.81 to 4.5 Gy in the gastrointestinal tract (small intestine, stomach, large intestine), from 0.096 to 0.14 Gy in lungs, and doses in skin and eyes ranged from 0.29 to 0.42 Gy and from 0.12 to 0.16 Gy, respectively. Internal radiation doses in other organs of mice were much lower. (c) Internal radiation doses were significantly lower in organs of rats with the same activity of exposure to (56)MnO(2) powder (2.74 × 10(8) Bq): 0.09, 0.17, 0.29, and 0.025 Gy in stomach, small intestine, large intestine, and lungs, respectively. (d) Doses of internal irradiation in organs of rats and mice were two to four times higher when they were exposed to 8.0 × 10(8) Bq of (56)MnO(2) (in comparison with exposure to 2.74 × 10(8) Bq of (56)MnO(2)). (e) Internal radiation doses in organs of mice were 7–14 times lower with the lowest (56)MnO(2) amount (8.0 × 10(7) Bq) in comparison with the highest amount, 8.0 × 10(8) Bq, of dispersed (56)MnO(2) powder. The data obtained will be used for interpretation of biological effects in experimental mice and rats that result from dispersion of various levels of neutron-activated (56)MnO(2) powder, which is the subject of separate studies.
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spelling pubmed-75447552020-10-19 Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study Stepanenko, Valeriy Kaprin, Andrey Ivanov, Sergey Shegay, Peter Zhumadilov, Kassym Petukhov, Aleksey Kolyzhenkov, Timofey Bogacheva, Viktoria Zharova, Elena Iaskova, Elena Chaizhunusova, Nailya Shabdarbayeva, Dariya Amantayeva, Gaukhar Baurzhan, Arailym Ruslanova, Bakhyt Abishev, Zhaslan Apbassova, Madina Kairkhanova, Ynkar Uzbekov, Darkhan Khismetova, Zaituna Zhunussov, Yersin Fujimoto, Nariaki Sato, Hitoshi Shichijo, Kazuko Nakashima, Masahiro Sakaguchi, Aya Toyoda, Shin Kawano, Noriyuki Ohtaki, Megu Otani, Keiko Endo, Satoru Yamamoto, Masayoshi Hoshi, Masaharu Radiat Environ Biophys Original Article The experiment was performed in support of a Japanese initiative to investigate the biological effects of irradiation from residual neutron-activated radioactivity that resulted from the A-bombing. Radionuclide (56)Mn (T(1/2) = 2.58 h) is one of the main neutron-activated emitters during the first hours after neutron activation of soil dust particles. In our previous studies (2016–2017) related to irradiation of male Wistar rats after dispersion of (56)MnO(2) powder, the internal doses in rats were found to be very inhomogeneous: distribution of doses among different organs ranged from 1.3 Gy in small intestine to less than 0.0015 Gy in some of the other organs. Internal doses in the lungs ranged from 0.03 to 0.1 Gy. The essential pathological changes were found in lung tissue of rats despite a low level of irradiation. In the present study, the dosimetry investigations were extended: internal doses in experimental mice and rats were estimated for various activity levels of dispersed neutron-activated (56)MnO(2) powder. The following findings were noted: (a) internal radiation doses in mice were several times higher in comparison with rats under similar conditions of exposure to (56)MnO(2) powder. (b) When 2.74 × 10(8) Bq of (56)MnO(2) powder was dispersed over mice, doses of internal irradiation ranged from 0.81 to 4.5 Gy in the gastrointestinal tract (small intestine, stomach, large intestine), from 0.096 to 0.14 Gy in lungs, and doses in skin and eyes ranged from 0.29 to 0.42 Gy and from 0.12 to 0.16 Gy, respectively. Internal radiation doses in other organs of mice were much lower. (c) Internal radiation doses were significantly lower in organs of rats with the same activity of exposure to (56)MnO(2) powder (2.74 × 10(8) Bq): 0.09, 0.17, 0.29, and 0.025 Gy in stomach, small intestine, large intestine, and lungs, respectively. (d) Doses of internal irradiation in organs of rats and mice were two to four times higher when they were exposed to 8.0 × 10(8) Bq of (56)MnO(2) (in comparison with exposure to 2.74 × 10(8) Bq of (56)MnO(2)). (e) Internal radiation doses in organs of mice were 7–14 times lower with the lowest (56)MnO(2) amount (8.0 × 10(7) Bq) in comparison with the highest amount, 8.0 × 10(8) Bq, of dispersed (56)MnO(2) powder. The data obtained will be used for interpretation of biological effects in experimental mice and rats that result from dispersion of various levels of neutron-activated (56)MnO(2) powder, which is the subject of separate studies. Springer Berlin Heidelberg 2020-09-29 2020 /pmc/articles/PMC7544755/ /pubmed/32989569 http://dx.doi.org/10.1007/s00411-020-00870-x Text en © The Author(s) 2020 Open AccessThis article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article's Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article's Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/.
spellingShingle Original Article
Stepanenko, Valeriy
Kaprin, Andrey
Ivanov, Sergey
Shegay, Peter
Zhumadilov, Kassym
Petukhov, Aleksey
Kolyzhenkov, Timofey
Bogacheva, Viktoria
Zharova, Elena
Iaskova, Elena
Chaizhunusova, Nailya
Shabdarbayeva, Dariya
Amantayeva, Gaukhar
Baurzhan, Arailym
Ruslanova, Bakhyt
Abishev, Zhaslan
Apbassova, Madina
Kairkhanova, Ynkar
Uzbekov, Darkhan
Khismetova, Zaituna
Zhunussov, Yersin
Fujimoto, Nariaki
Sato, Hitoshi
Shichijo, Kazuko
Nakashima, Masahiro
Sakaguchi, Aya
Toyoda, Shin
Kawano, Noriyuki
Ohtaki, Megu
Otani, Keiko
Endo, Satoru
Yamamoto, Masayoshi
Hoshi, Masaharu
Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study
title Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study
title_full Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study
title_fullStr Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study
title_full_unstemmed Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study
title_short Internal doses in experimental mice and rats following exposure to neutron-activated (56)MnO(2) powder: results of an international, multicenter study
title_sort internal doses in experimental mice and rats following exposure to neutron-activated (56)mno(2) powder: results of an international, multicenter study
topic Original Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7544755/
https://www.ncbi.nlm.nih.gov/pubmed/32989569
http://dx.doi.org/10.1007/s00411-020-00870-x
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